def parse_grd_file(self):
global __line
try:
f = open(self.grd_file, 'r')
except:
raise
for j in range(0, 6):
__line = f.next()
(self.nx, self.ny) = map(int, __line.split())
print "Grid file %s (%d, %d)" % (self.grd_file, self.nx, self.ny)
f.close()
floatNumber = Regex(r'-?\d+(\.\d*)?([eE][\+-]\d+)?').setParseAction(lambda s, l, t: [float(t[0])])
integer = Word(nums).setParseAction(lambda s, l, t: [long(t[0])])
grdline = Suppress('ETA=') + Suppress(integer) + OneOrMore(floatNumber)
for a in grdline.searchString(file(self.grd_file).read()):
if len(self.x) < self.ny:
self.x.append(a.asList())
else:
self.y.append(a.asList())
def init_parser(self):
INTEGER = Word(nums)
INTEGER.setParseAction(lambda x: int(x[0]))
header = INTEGER("species_count") + INTEGER("sequence_length") +\
Suppress(restOfLine)
header.setParseAction(self.set_header)
sequence_name = Word(
alphas + nums + "!#$%&\'*+-./;<=>?@[\\]^_`{|}~",
max=100)
# Take a copy and disallow line breaks in the bases
bases = self.BASES.copy()
bases.setWhitespaceChars(" \t")
seq_start = sequence_name("species") + bases(
"sequence") + Suppress(LineEnd())
seq_start.setParseAction(self.set_seq_start)
seq_start_block = OneOrMore(seq_start)
seq_start_block.setParseAction(self.set_start_block)
seq_continue = bases("sequence") + Suppress(LineEnd())
seq_continue.setParseAction(self.set_seq_continue)
seq_continue_block = Suppress(LineEnd()) + OneOrMore(seq_continue)
seq_continue_block.setParseAction(self.set_continue_block)
return header + seq_start_block + ZeroOrMore(seq_continue_block)
def parse(self, header):
comment = self._comment()
quoted = quotedString.copy().setParseAction(removeQuotes)
string = quoted | Word(printables, excludeChars='{},%')
enum_value = quotedString | Word(printables, excludeChars='{},%')
relation = (Suppress(CaselessLiteral("@relation")) +
Optional(restOfLine, default='default_name')('rel_name').setParseAction(lambda t: t.rel_name.strip()))
relation_part = ZeroOrMore(comment) + relation + ZeroOrMore(comment)
nominal = (Empty().copy().setParseAction(lambda t: self.ENUM) +
Suppress(Literal("{")) +
Group(delimitedList(enum_value, delim=self._separator))("next_arg").setParseAction(self.get_values) +
Suppress(Literal("}")))
date = CaselessLiteral("date") + Optional(CharsNotIn("{},\n"))("next_arg").setParseAction(self._adapt_date_format)
attributes_part = Forward()
relational = CaselessLiteral("relational") + attributes_part + Suppress(CaselessLiteral("@end")) + string
attr_type = (CaselessLiteral("numeric") | CaselessLiteral("string") | nominal | date | relational)("attr_type")
attribute = Suppress(CaselessLiteral("@attribute")) + (string.copy())("attr_name") + attr_type
attribute_line = comment | attribute
attributes_part << (Group(OneOrMore(attribute_line)))("children")
data_part = (CaselessLiteral("@data"))("data_start").setParseAction(lambda s, p, k: (lineno(p, s)))
arff_header = relation_part + attributes_part + data_part
attribute.setParseAction(self._create_attribute)
try:
result = arff_header.parseString(header, parseAll=True)
except ParseException as e:
raise HeaderError(FileType.ARFF, e.lineno, e.col, e.line, e)
self._relation_name = result.rel_name
self._find_relational(result.children)
self._linearize_attrs(result.children)
self._data_start = result.data_start
self._index = 0
def parse(date_string):
# Parser for individual dates
days_of_week = ['Monday', 'Tuesday', 'Wednesday', 'Thursday', 'Friday', 'Saturday', 'Sunday',
'Mon', 'Tue', 'Wed', 'Thurs', 'Fri', 'Sat', 'Sun']
suffixes = Literal('nd') | Literal('rd') | Literal('st') | Literal('th')
day_of_month = Group(Word(nums) + Suppress(Optional(suffixes))).setResultsName('day')
single_date = Optional(DateParser._build_literal(days_of_week)).setResultsName('dow') + day_of_month + \
Optional(DateParser._build_literal(LONG_MONTHS + SHORT_MONTHS)).setResultsName('month') + \
Optional(Word(nums)).setResultsName('year')
single_date.setParseAction(SingleDate)
# Parser for date ranges
date_range_separators = DateParser._build_literal(['-', 'until', 'to'])
date_range = Suppress(Optional('From')) + single_date.setResultsName('start_date') + \
Suppress(date_range_separators) + single_date.setResultsName('end_date')
date_range.setParseAction(DateRange)
date_parser = (date_range | single_date) + stringEnd
result = date_parser.parseString(date_string)
return result
def main():
filename = sys.argv[1]
source = open(filename).read()
commentFilter = Suppress( javaStyleComment ).ignore( dblQuotedString )
source = commentFilter.transformString(source)
source = source.replace('\r\n', '\n')
source = source.replace('\r', '')
for m in re.finditer('#pragma[ \t][ \t]*pskel.*\n', source):
pragma = m.group(0)
begin = m.start(0)
end = m.end(0)+1
while pragma.strip()[-1]=='\\':
pragma = pragma.strip()[:-1].strip()
tmp = ''
while source[end]!='\n':
tmp += source[end]
end += 1
pragma += ' '+tmp.strip()
end += 1
pragma = pragma.strip()
print begin, end
print pragma
#print source[begin:end]
pinfo = parsePragma(pragma)
print pinfo
fcall = readFuncCall(source,end)
print fcall
kfunc = findFunctionDef(source,fcall[0])
print source[fcall[2]:fcall[3]]
mainf = readOutterFunction(source, begin)
#print mainf
fcall_name = '_pskelcc_stencil_'+str(fcall[2])+'_'+str(fcall[3])
tmainf = mainf['src'].replace(source[begin:end],'\n').replace(source[fcall[2]:fcall[3]],fcall_name+'();')
print tmainf
parser = c_parser.CParser()
ast = parser.parse(tmainf)
pgen = PSkelGenerator(pinfo,fcall_name)
new_mainf = pgen.visit(ast)
parser = c_parser.CParser()
ast = parser.parse(kfunc['src'])
pgen = PSkelKernelGenerator(pinfo)
new_kfunc = pgen.visit(ast)
f = open(sys.argv[2],'w')
f.write('#define PSKEL_OMP\n')
if pinfo['device']=='gpu':
f.write('#define PSKEL_CUDA\n')
f.write('''
#include "include/PSkel.h"
using namespace PSkel;\n\n''')
f.write(source[:kfunc['begin']]+new_kfunc+source[kfunc['end']:mainf['begin']]+new_mainf+source[mainf['end']:])
f.close()
def getEbnfParser(symbols):
""" Returns an EBNF parser for the command language. """
identifier = Word(alphas + '_', alphanums + '_')
string = quotedString.setParseAction(
lambda t: symbols.append((t[0][1:-1], TokenType.StrLit))
)
integer = Word(nums).setParseAction(
lambda t: symbols.append((int(t[0]), TokenType.NumLit))
)
var = Suppress("$") + identifier
var.setParseAction(
lambda t: symbols.append((t[0], TokenType.Var))
)
literal = var | string | integer
fnid = Suppress(Optional(".")) + identifier
fnid.setParseAction(
lambda t: symbols.append((t[0], TokenType.Call))
)
call = Forward()
callb = fnid + ZeroOrMore(call | literal)
call << ((Suppress("(") + callb + Suppress(")")) | callb)
fndef_head = Suppress("let") + identifier
fndef_head.setParseAction(
lambda t: symbols.append((t[0], TokenType.Def))
)
definition = fndef_head + ZeroOrMore(var) + Suppress("=") + call
cmd = OneOrMore((definition | call) + Word(";").setParseAction(
lambda t: symbols.append((t[0], TokenType.End))
))
msg = OneOrMore(cmd)
return msg
def setup(self):
# some expressions that will be reused
units = []
for unit in time_units:
units.append(Keyword(unit))
units = get_match_first(units)
units = units.setResultsName("unit")
units.setParseAction(lambda s, l, tok: time_units[tok[0]])
multiplier = Word(nums)
multiplier = multiplier.setResultsName("multiply")
multiplier.setParseAction(self.parseMulti)
adder = []
for add in add_modifiers:
adder.append(CL(add))
adder = get_match_first(adder)
adder = adder.setResultsName("add")
adder.setParseAction(self.parseAdd)
modifier = (multiplier | adder) # + FollowedBy(units)
# ago
#
# e.g 5 days ago
ago = Optional(modifier) + units + Suppress(Word("ago"))
ago.setParseAction(self.parseAgo)
# time range
#
# e.g in the lat 10 days
time_range = Suppress(Optional(
CL("in the"))) + \
Suppress(Word("last") |
Word("past")) + \
Optional(modifier) + \
units
time_range.setParseAction(self.parseRange)
# special keyword handling
#
# e.g yesterday
# only handles yesterday right now, maybe need to be modified to do
# more
special_expr = []
for expr in special:
special_expr.append(
Keyword(expr).setParseAction(
lambda s, l, tok: special[tok[0]]))
special_expr = get_match_first(special_expr)
special_expr = special_expr.setResultsName("unit")
special_expr.setParseAction(self.parseAgo)
parser = (special_expr | ago | time_range)
return parser
def parse_table(attribute, string):
Line = OneOrMore(Float)('data') + Literal(';') + Optional(Comments, default='')('name')
Grammar = Suppress(Keyword('mpc.{}'.format(attribute)) + Keyword('=') + Keyword('[') + Optional(Comments)) + OneOrMore(Group(Line)) + Suppress(Keyword(']') + Optional(Comments))
result, i, j = Grammar.scanString(string).next()
_list = list()
for r in result:
_list.append([int_else_float_except_string(s) for s in r['data'].asList()])
return _list
def parse_puppetfile_forge_mods(cls, file_contents):
mod_kwargs = {}
quotedString = QuotedString('"') ^ QuotedString('\'')
forge_url_grammar = Suppress('forge') + quotedString
for url, in forge_url_grammar.searchString(file_contents):
mod_kwargs['forge_url'] = url
mod_grammar = Suppress('mod') + quotedString + Suppress(',') + quotedString
mods = mod_grammar.searchString(file_contents)
for mod, version in mods:
user, mod_name = mod.split('/')
yield cls(user, mod_name, version, **mod_kwargs)
def __init__(self):
self.ALPHA_LABEL = Regex(r'alpha\[\d+\]:')
self.LNL_LABEL = Literal('Final GAMMA-based Score of best tree')
self.FRQ_LABEL = Regex(r'Base frequencies: (?=\d+)') ^ Regex(r'ML estimate base freqs\[\d+\]:')
self.NAMES_LABEL = Regex(r'Partition: \d+ with name:\s+')
self.RATES_LABEL = Regex(r'rates\[\d+\].+?:')
self.MODEL_LABEL = Literal('Substitution Matrix:')
self.alpha = OneOrMore(Suppress(SkipTo(self.ALPHA_LABEL)) + Suppress(self.ALPHA_LABEL) + FLOAT)
self.lnl = Suppress(SkipTo(self.LNL_LABEL)) + Suppress(self.LNL_LABEL) + FLOAT
self.frq = OneOrMore(Group(Suppress(SkipTo(self.FRQ_LABEL)) + Suppress(self.FRQ_LABEL) + OneOrMore(FLOAT)))
self.names = OneOrMore(Suppress(SkipTo(self.NAMES_LABEL)) + Suppress(self.NAMES_LABEL) + CharsNotIn('\n') + Suppress(LineEnd()))
self.rates = OneOrMore(Group(Suppress(SkipTo(self.RATES_LABEL)) + Suppress(self.RATES_LABEL) + OneOrMore(FLOAT)))
self.model = Suppress(SkipTo(self.MODEL_LABEL)) + Suppress(self.MODEL_LABEL) + WORD
MODEL_LABEL = Literal('Substitution Matrix:')
SCORE_LABEL = Literal('Final GAMMA likelihood:')
DESC_LABEL = Literal('Model Parameters of Partition')
NAME_LEADIN = Literal(', Name:')
DATATYPE_LEADIN = Literal(', Type of Data:')
ALPHA_LEADIN = Literal('alpha:')
TREELENGTH_LEADIN = Literal('Tree-Length:')
RATES_LABEL = Regex(r'rate \w <-> \w:')
FREQS_LABEL = Regex(r'freq pi\(\w\):')
BEST_LEADIN = Literal('Starting final GAMMA-based thorough Optimization on tree ')
PARTITION_LEADIN = Literal('Partition:')
INFERENCE_LEADIN = Literal('Inference[')
model = Suppress(SkipTo(MODEL_LABEL)) + Suppress(MODEL_LABEL) + WORD
likelihood = Suppress(SkipTo(SCORE_LABEL)) + Suppress(SCORE_LABEL) + FLOAT
description = (Suppress(SkipTo(DESC_LABEL)) +
Suppress(DESC_LABEL) + INT +
Suppress(NAME_LEADIN) +
SPACEDWORD +
Suppress(DATATYPE_LEADIN) +
WORD)
alpha = Suppress(ALPHA_LEADIN) + FLOAT
rates = Suppress(RATES_LABEL) + FLOAT
freqs = Suppress(FREQS_LABEL) + FLOAT
self.partition = OneOrMore(Suppress(SkipTo(PARTITION_LEADIN)) + Suppress(PARTITION_LEADIN) + INT)
self.inference = OneOrMore(Suppress(SkipTo(INFERENCE_LEADIN)) + Suppress(INFERENCE_LEADIN) + INT)
self.best = Suppress(SkipTo(BEST_LEADIN)) + Suppress(BEST_LEADIN) + INT
self._dash_f_e_parser = (Group(OneOrMore(model)) +
likelihood +
Group(OneOrMore(Group(description +
alpha +
Suppress(TREELENGTH_LEADIN) +
Suppress(FLOAT) +
Group(OneOrMore(rates)) +
Group(OneOrMore(freqs))
))))
def parser():
global _parser
if _parser is None:
ParserElement.setDefaultWhitespaceChars("")
lbrack = Literal("[")
rbrack = Literal("]")
lbrace = Literal("{")
rbrace = Literal("}")
lparen = Literal("(")
rparen = Literal(")")
reMacro = Suppress("\\") + oneOf(list("dwsZ"))
escapedChar = ~reMacro + Combine("\\" + oneOf(list(printables)))
reLiteralChar = "".join(c for c in string.printable if c not in r"\[]{}().*?+|")
reRange = Combine(lbrack.suppress() + SkipTo(rbrack,ignore=escapedChar) + rbrack.suppress())
reLiteral = ( escapedChar | oneOf(list(reLiteralChar)) )
reDot = Literal(".")
repetition = (
( lbrace + Word(nums).setResultsName("count") + rbrace ) |
( lbrace + Word(nums).setResultsName("minCount")+","+ Word(nums).setResultsName("maxCount") + rbrace ) |
oneOf(list("*+?"))
)
reExpr = Forward()
reGroup = (lparen.suppress() +
Optional(Literal("?").suppress() + oneOf(list(":P"))).setResultsName("option") +
reExpr.setResultsName("expr") +
rparen.suppress())
reTerm = ( reLiteral | reRange | reMacro | reDot | reGroup )
reExpr << operatorPrecedence( reTerm,
[
(repetition, 1, opAssoc.LEFT, create(Repetition)),
(None, 2, opAssoc.LEFT, create(Sequence)),
(Suppress('|'), 2, opAssoc.LEFT, create(Alternation)),
]
)
reGroup.setParseAction(create(Group))
reRange.setParseAction(create(Range))
reLiteral.setParseAction(create(Character))
reMacro.setParseAction(create(Macro))
reDot.setParseAction(create(Dot))
_parser = reExpr
return _parser
def songs_pyparsing(fh):
r"""
>>> import os
>>> filename = os.path.dirname(__file__)
>>> filename = os.path.join(filename, "data/Various-Pop.m3u")
>>> with open(filename, "rt", encoding="utf8") as fh:
... songs = songs_pyparsing(fh)
>>> songs[0].title, songs[0].seconds, songs[0].filename
('Various - Two Tribes', 236, 'Various\\Frankie Goes To Hollywood\\02-Two Tribes.ogg')
>>> songs[-1].title, songs[-1].seconds, songs[-1].filename
('The Police - Walking On The Moon', 303, 'Various\\Sting & The Police 1997\\06-Walking On The Moon.ogg')
>>> lines = []
>>> lines.append("#EXTM3U")
>>> lines.append("#EXTINF:140,The Beatles - Love Me Do")
>>> lines.append("Beatles\\Greatest Hits\\01-Love Me Do.ogg")
>>> lines.append("#EXTINF:-1,The Beatles - From Me To You")
>>> lines.append("Beatles\\Greatest Hits\\02-From Me To You.ogg")
>>> import io
>>> data = io.StringIO("\n".join(lines))
>>> songs = songs_ply(data)
>>> len(songs) == 2
True
>>> songs[0].title, songs[0].seconds
('The Beatles - Love Me Do', 140)
>>> songs[1].title, songs[1].seconds
('The Beatles - From Me To You', -1)
"""
def add_song(tokens):
songs.append(Song(tokens.title, tokens.seconds,
tokens.filename))
#songs.append(Song(**tokens.asDict()))
songs = []
title = restOfLine("title")
filename = restOfLine("filename")
seconds = Combine(Optional("-") + Word(nums)).setParseAction(
lambda tokens: int(tokens[0]))("seconds")
info = Suppress("#EXTINF:") + seconds + Suppress(",") + title
entry = info + LineEnd() + filename + LineEnd()
entry.setParseAction(add_song)
parser = Suppress("#EXTM3U") + OneOrMore(entry)
try:
parser.parseFile(fh)
except ParseException as err:
print("parse error: {0}".format(err))
return []
return songs
def parse_issue(issue):
"""Given an issue, return data that needs saving"""
from pyparsing import Word, Suppress, Literal, OneOrMore, Optional, nums, printables
sprint = (Literal('Sprint') | Literal('sprint')) + Word(nums)
points = Suppress(Literal('(')) + Word(nums) + Suppress(Literal(')'))
deadline = Suppress(Literal('<')) + Word(nums)
name = OneOrMore(Word(printables))
title = Optional(sprint).setResultsName("sprint") + \
Optional(name).setResultsName("name") + \
Optional(deadline).setResultsName("deadline") + \
points.setResultsName("points")
try:
_, r = title.parseString(issue['title'])
print r
except:
pass
def __init__(self):
self.ALPHA_LABEL = Regex(r"alpha\[\d+\]:")
self.LNL_LABEL = Literal("Final GAMMA-based Score of best tree")
self.FRQ_LABEL = Regex(r"Base frequencies: (?=\d+)") ^ Regex(r"ML estimate base freqs\[\d+\]:")
self.NAMES_LABEL = Regex(r"Partition: \d+ with name:\s+")
self.RATES_LABEL = Regex(r"rates\[\d+\].+?:")
self.MODEL_LABEL = Literal("Substitution Matrix:")
self.alpha = OneOrMore(Suppress(SkipTo(self.ALPHA_LABEL)) + Suppress(self.ALPHA_LABEL) + FLOAT)
self.lnl = Suppress(SkipTo(self.LNL_LABEL)) + Suppress(self.LNL_LABEL) + FLOAT
self.frq = OneOrMore(Group(Suppress(SkipTo(self.FRQ_LABEL)) + Suppress(self.FRQ_LABEL) + OneOrMore(FLOAT)))
self.names = OneOrMore(
Suppress(SkipTo(self.NAMES_LABEL)) + Suppress(self.NAMES_LABEL) + CharsNotIn("\n") + Suppress(LineEnd())
)
self.rates = OneOrMore(
Group(Suppress(SkipTo(self.RATES_LABEL)) + Suppress(self.RATES_LABEL) + OneOrMore(FLOAT))
)
self.model = Suppress(SkipTo(self.MODEL_LABEL)) + Suppress(self.MODEL_LABEL) + WORD
MODEL_LABEL = Literal("Substitution Matrix:")
SCORE_LABEL = Literal("Final GAMMA likelihood:")
DESC_LABEL = Literal("Model Parameters of Partition")
NAME_LEADIN = Literal(", Name:")
DATATYPE_LEADIN = Literal(", Type of Data:")
ALPHA_LEADIN = Literal("alpha:")
TREELENGTH_LEADIN = Literal("Tree-Length:")
RATES_LABEL = Regex(r"rate \w <-> \w:")
FREQS_LABEL = Regex(r"freq pi\(\w\):")
model = Suppress(SkipTo(MODEL_LABEL)) + Suppress(MODEL_LABEL) + WORD
likelihood = Suppress(SkipTo(SCORE_LABEL)) + Suppress(SCORE_LABEL) + FLOAT
description = (
Suppress(SkipTo(DESC_LABEL))
+ Suppress(DESC_LABEL)
+ INT
+ Suppress(NAME_LEADIN)
+ SPACEDWORD
+ Suppress(DATATYPE_LEADIN)
+ WORD
)
alpha = Suppress(ALPHA_LEADIN) + FLOAT
rates = Suppress(RATES_LABEL) + FLOAT
freqs = Suppress(FREQS_LABEL) + FLOAT
self._dash_f_e_parser = (
Group(OneOrMore(model))
+ likelihood
+ Group(
OneOrMore(
Group(
description
+ alpha
+ Suppress(TREELENGTH_LEADIN)
+ Suppress(FLOAT)
+ Group(OneOrMore(rates))
+ Group(OneOrMore(freqs))
)
)
)
)
def fromString(inputText, verbose=False):
if verbose: print 'Verbose:', verbose
text = nestedExpr("/*", "*/").suppress().transformString(inputText)
semicolon = Suppress(Word(";"))
quote = Suppress(Word("\""))
op = Suppress(Word("{"))
cl = Suppress(Word("}"))
opp = Suppress(Word("("))
clp = Suppress(Word(")"))
lt = Suppress(Word("<"))
gt = Suppress(Word(">"))
identifier = Word(alphas+"_",alphanums+"_")
typeIdentifier = Word(alphas+"_",alphanums+"_:")
## Imports
idslImport = Suppress(Word("import")) + quote + CharsNotIn("\";").setResultsName('path') + quote + semicolon
idslImports = ZeroOrMore(idslImport)
dictionaryDef = Word("dictionary") + lt + CharsNotIn("<>;") + gt + identifier.setResultsName('name') + semicolon
sequenceDef = Word("sequence") + lt + CharsNotIn("<>;") + gt + identifier.setResultsName('name') + semicolon
enumDef = Word("enum") + identifier.setResultsName('name') + op + CharsNotIn("{}") + cl + semicolon
structDef = Word("struct") + identifier.setResultsName('name') + op + CharsNotIn("{}") + cl + semicolon
exceptionDef = Word("exception") + identifier.setResultsName('name') + op + CharsNotIn("{}") + cl + semicolon
raiseDef = Suppress(Word("throws")) + typeIdentifier + ZeroOrMore( Literal(',') + typeIdentifier )
decoratorDef = Literal('idempotent') | Literal('out')
retValDef = typeIdentifier.setResultsName('ret')
firstParam = Group( Optional(decoratorDef.setResultsName('decorator')) + typeIdentifier.setResultsName('type') + identifier.setResultsName('name'))
nextParam = Suppress(Word(',')) + firstParam
params = firstParam + ZeroOrMore(nextParam)
remoteMethodDef = Group(Optional(decoratorDef) + retValDef + typeIdentifier.setResultsName('name') + opp + Optional( params).setResultsName('params') + clp + Optional(raiseDef) + semicolon )
interfaceDef = Word("interface") + typeIdentifier.setResultsName('name') + op + Group(ZeroOrMore(remoteMethodDef)) + cl + semicolon
moduleContent = Group(structDef | enumDef | exceptionDef | dictionaryDef | sequenceDef | interfaceDef)
module = Suppress(Word("module")) + identifier.setResultsName("name") + op + ZeroOrMore(moduleContent).setResultsName("contents") + cl + semicolon
IDSL = idslImports.setResultsName("imports") + module.setResultsName("module")
IDSL.ignore( cppStyleComment )
tree = IDSL.parseString(text)
return IDSLParsing.module(tree)
def detect_token(jade):
doctype = LineStart() + oneOf('!!! doctype') + Optional(oneOf('5 html xml' \
+ ' default transitional strict frameset 1.1 basic mobile', True))
doctype.setParseAction(parse_doctype)
element_id = Suppress('#') + Word(alphanums + '_' + '-')
element_class = Suppress('.') + Word(alphanums + '_' + '-')
selectors = (element_id.setResultsName('element_id') \
+ ZeroOrMore(element_class).setResultsName('element_class')) \
| (OneOrMore(element_class).setResultsName('element_class') \
+ Optional(element_id).setResultsName('element_id'))
selectors.setParseAction(parse_selectors)
element = selectors.setResultsName('selectors') \
| (Word(alphas).setResultsName('element_name') \
+ Optional(selectors).setResultsName('selectors'))
element.setParseAction(parse_element)
attribute = CharsNotIn('('+')')
attributes = nestedExpr(content=attribute)
tag = element.setResultsName('element') \
+ Optional(attributes).setResultsName('attributes')
tag.setParseAction(parse_tag)
# TODO: block-comment and conditional-comment
unbuffered_comment = Suppress(Suppress('//-') + restOfLine)
buffered_comment = Suppress('//') + restOfLine
buffered_comment.setParseAction(parse_buffered_comment)
# Order matters here, as buffered will pick up
# unbuffered comments if set first
comment = unbuffered_comment | buffered_comment
source = doctype | tag | comment
parsed = source.parseString(jade)
return ' '.join(parsed)
'''
def get_network_name(self):
"""
Retruns the name of the network
Example
---------------
>>> from pgmpy.readwrite import BIFReader
>>> reader = BIF.BifReader("bif_test.bif")
>>> reader.network_name()
'Dog-Problem'
"""
start = self.network.find('network')
end = self.network.find('}\n', start)
# Creating a network attribute
network_attribute = Suppress('network') + Word(alphanums + '_' + '-') + '{'
network_name = network_attribute.searchString(self.network[start:end])[0][0]
return network_name
def parseReactions(reaction):
name = Word(alphanums + '_-') + ':'
species = (Word(alphanums + "_:#-")
+ Suppress('()')) + ZeroOrMore(Suppress('+') + Word(alphanums + "_:#-")
+ Suppress("()"))
rate = Word(alphanums + "()")
grammar = Suppress(Optional(name)) + ((Group(species) | '0') + Suppress(Optional("<") + "->") +
(Group(species) | '0') + Suppress(rate)) \
^ (species + Suppress(Optional("<") + "->") + Suppress(rate))
result = grammar.parseString(reaction).asList()
if len(result) < 2:
result = [result, []]
if '<->' in reaction and len(result[0]) == 1 and len(result[1]) == 2:
result2 = [result[1], result[0]]
result = result2
return result
def get_fragment_grammar():
# Match header [mapping]
header = Suppress("[") + Suppress("mapping") + Suppress("]")
# There are three possible patterns for mapping entries:
# obj:symbol (scheme)
# obj (scheme)
# * (scheme)
obj = Fragment.ENTITY.setResultsName("object")
symbol = Suppress(":") + Fragment.IDENTIFIER.setResultsName("symbol")
scheme = Suppress("(") + Fragment.IDENTIFIER.setResultsName("scheme") + Suppress(")")
pattern1 = Group(obj + symbol + scheme)
pattern2 = Group(obj + scheme)
pattern3 = Group(Literal(Mapping.MAPPING_ALL_OBJECTS).setResultsName("object") + scheme)
mapping_entry = pattern1 | pattern2 | pattern3
# To simplify parsing, classify groups of condition-mapping entry into two types: normal and default
# A normal grouping is one with a non-default condition. The default grouping is one which contains the
# default condition
mapping_entries = Group(ZeroOrMore(mapping_entry)).setResultsName("mappings")
normal_condition = Suppress(":") + originalTextFor(SDKConfig.get_expression_grammar())
default_condition = Optional(Suppress(":") + Literal(Mapping.DEFAULT_CONDITION))
normal_group = Group(normal_condition.setResultsName("condition") + mapping_entries)
default_group = Group(default_condition + mapping_entries).setResultsName("default_group")
normal_groups = Group(ZeroOrMore(normal_group)).setResultsName("normal_groups")
# Any mapping fragment definition can have zero or more normal group and only one default group as a last entry.
archive = Suppress("archive") + Suppress(":") + Fragment.ENTITY.setResultsName("archive")
entries = Suppress("entries") + Suppress(":") + (normal_groups + default_group).setResultsName("entries")
mapping = Group(header + archive + entries)
mapping.setParseAction(lambda t: Mapping(t[0].archive, t[0].entries))
mapping.ignore("#" + restOfLine)
return mapping
class Compiler:
def __init__(self):
self._pythonVar = None
self.varNames = []
Preprocess.setSocialiteModule(getModuleVar())
def pythonVar(self):
if not self._pythonVar:
from pyparsing import (ParserElement, Word, alphas, alphanums,
Literal, Suppress, FollowedBy)
_ws = ' \t'
ParserElement.setDefaultWhitespaceChars(_ws)
ident = Word(alphas+"_", alphanums+"_")
lparen = Literal("(")
dot = Literal(".")
dollar = Literal("$")
self._pythonVar = Suppress(dollar) + ident + ~FollowedBy((dot+ident) | lparen)
self._pythonVar.setParseAction(self.onPythonVar)
return self._pythonVar
def compile(self, src):
gen=Preprocess.run(src)
return gen
def processPythonVars(self, query):
query = '('+query+')'
tmp = query
if tmp.find("$") >= 0: tmp = self.pythonVar().transformString(query)
if self.varNames:
query = ''.join([tmp, "%"+getPassVarsFunc()+"(", ','.join(self.varNames), ")"])
else: query = tmp
for i in xrange(len(self.varNames)):
self.varNames.pop()
return query
def onPythonVar(self, inputStr, loc, tokens):
varName = ''.join(tokens)
self.varNames.append(varName)
return "%s"
def __init__(self, cfg):
self.cfg = cfg
if cfg.datatype == "protein":
letters = _protein_letters
elif cfg.datatype == "DNA":
letters = _dna_letters
elif cfg.datatype == "morphology":
letters = "0123456789"
else:
log.error("Unknown datatype '%s', please check" % self.cfg.datatype)
raise util.PartitionFinderError
self.rate_indexes = self.cfg.data_layout.rate_indexes
self.freq_indexes = self.cfg.data_layout.letter_indexes
FLOAT = Word(nums + '.-').setParseAction(lambda x: float(x[0]))
L = Word(letters, exact=1)
COLON = Suppress(":")
LNL_LABEL = Regex("Final GAMMA.+:") | Literal("Likelihood:")
TIME_LABEL = Regex("Overall Time.+:") | Regex("Overall Time.+tion ")
ALPHA_LABEL = Literal("alpha:")
TREE_SIZE_LABEL = Literal("Tree-Length:")
def labeled_float(label):
return Suppress(SkipTo(label)) + Suppress(label) + FLOAT
lnl = labeled_float(LNL_LABEL)
lnl.setParseAction(self.set_lnl)
seconds = labeled_float(TIME_LABEL)
seconds.setParseAction(self.set_seconds)
alpha = labeled_float(ALPHA_LABEL)
alpha.setParseAction(self.set_alpha)
tree_size = labeled_float(TREE_SIZE_LABEL)
tree_size.setParseAction(self.set_tree_size)
LG4X_LINE = "LG4X" + restOfLine
lg4x = Optional(LG4X_LINE + LG4X_LINE)
rate = Suppress("rate") + L + Suppress("<->") + L + COLON + FLOAT
rate.setParseAction(self.set_rate)
rates = OneOrMore(rate)
freq = Suppress("freq pi(") + L + Suppress("):") + FLOAT
freq.setParseAction(self.set_freq)
freqs = OneOrMore(freq)
LGM_LINE = "LGM" + restOfLine
rate_block = Optional(LGM_LINE) + rates + freqs
rate_block.setParseAction(self.rate_block)
# Just look for these things
self.root_parser = seconds + lnl + alpha + tree_size +\
lg4x + OneOrMore(rate_block)
def fromString(inputText, verbose=False):
if verbose: print 'Verbose:', verbose
text = nestedExpr("/*", "*/").suppress().transformString(inputText)
semicolon = Suppress(Word(";"))
quote = Suppress(Word("\""))
op = Suppress(Word("{"))
cl = Suppress(Word("}"))
opp = Suppress(Word("("))
clp = Suppress(Word(")"))
identifier = Word( alphas+"_", alphanums+"_" )
commIdentifier = Group(identifier.setResultsName('identifier') + Optional(opp + (CaselessLiteral("ice")|CaselessLiteral("ros")).setResultsName("type") + clp))
# Imports
idslImport = Suppress(CaselessLiteral("import")) + quote + CharsNotIn("\";").setResultsName('path') + quote + semicolon
idslImports = ZeroOrMore(idslImport)
# Communications
implementsList = Group(CaselessLiteral('implements') + identifier + ZeroOrMore(Suppress(Word(',')) + identifier) + semicolon)
requiresList = Group(CaselessLiteral('requires') + identifier + ZeroOrMore(Suppress(Word(',')) + identifier) + semicolon)
subscribesList = Group(CaselessLiteral('subscribesTo') + commIdentifier + ZeroOrMore(Suppress(Word(',')) + commIdentifier) + semicolon)
publishesList = Group(CaselessLiteral('publishes') + identifier + ZeroOrMore(Suppress(Word(',')) + identifier) + semicolon)
communicationList = implementsList | requiresList | subscribesList | publishesList
communications = Group( Suppress(CaselessLiteral("communications")) + op + ZeroOrMore(communicationList) + cl + semicolon)
# Language
language = Suppress(CaselessLiteral("language")) + (CaselessLiteral("cpp")|CaselessLiteral("python")) + semicolon
# GUI
gui = Group(Optional(Suppress(CaselessLiteral("gui")) + CaselessLiteral("Qt") + opp + identifier + clp + semicolon ))
# additional options
options = Group(Optional(Suppress(CaselessLiteral("options")) + identifier + ZeroOrMore(Suppress(Word(',')) + identifier) + semicolon))
componentContents = communications.setResultsName('communications') & language.setResultsName('language') & gui.setResultsName('gui') & options.setResultsName('options')
component = Suppress(CaselessLiteral("component")) + identifier.setResultsName("name") + op + componentContents.setResultsName("properties") + cl + semicolon
CDSL = idslImports.setResultsName("imports") + component.setResultsName("component")
CDSL.ignore( cppStyleComment )
tree = CDSL.parseString(text)
return CDSLParsing.component(tree)
def parse_ttable(f):
ttable = {}
# com = Suppress('[') + ZeroOrMore(CharsNotIn(']')) + Suppress(']')
com = Suppress('[' + ZeroOrMore(CharsNotIn(']') + ']'))
while True:
s = next(f).strip()
if not s:
continue
s = com.transformString(s).strip()
if s.lower() == ";":
break
b = False
if s[-1] in ",;":
if s[-1] == ';':
b = True
s = s[:-1]
# print(s)
k, v = s.split()
ttable[k] = v
if b:
break
return ttable
def pythonVar(self):
if not self._pythonVar:
from pyparsing import (ParserElement, Word, alphas, alphanums,
Literal, Suppress, FollowedBy)
_ws = ' \t'
ParserElement.setDefaultWhitespaceChars(_ws)
ident = Word(alphas+"_", alphanums+"_")
lparen = Literal("(")
dot = Literal(".")
dollar = Literal("$")
self._pythonVar = Suppress(dollar) + ident + ~FollowedBy((dot+ident) | lparen)
self._pythonVar.setParseAction(self.onPythonVar)
return self._pythonVar
def __init__(self, datatype):
if datatype == "protein":
letters = "ARNDCQEGHILKMFPSTWYV"
elif datatype == "DNA":
letters = "ATCG"
else:
log.error("Unknown datatype '%s', please check" % datatype)
raise RaxmlError
FLOAT = Word(nums + '.-').setParseAction(lambda x: float(x[0]))
L = Word(letters, exact=1)
COLON = Suppress(":")
LNL_LABEL = Regex("Final GAMMA.+:") | Literal("Likelihood:")
TIME_LABEL = Regex("Overall Time.+:") | Regex("Overall Time.+tion ")
ALPHA_LABEL = Literal("alpha:")
TREE_SIZE_LABEL = Literal("Tree-Length:")
def labeled_float(label):
return Suppress(SkipTo(label)) + Suppress(label) + FLOAT
lnl = labeled_float(LNL_LABEL)
lnl.setParseAction(self.set_lnl)
seconds = labeled_float(TIME_LABEL)
seconds.setParseAction(self.set_seconds)
alpha = labeled_float(ALPHA_LABEL)
alpha.setParseAction(self.set_alpha)
tree_size = labeled_float(TREE_SIZE_LABEL)
tree_size.setParseAction(self.set_tree_size)
rate = Suppress("rate") + L + Suppress("<->") + L + COLON + FLOAT
rate.setParseAction(self.set_rate)
rates = OneOrMore(rate)
freq = Suppress("freq pi(") + L + Suppress("):") + FLOAT
freq.setParseAction(self.set_freq)
freqs = OneOrMore(freq)
# Just look for these things
self.root_parser = seconds + lnl + alpha + tree_size + rates + freqs
def ListParser():
"""
A parser for list columns, where each list is composed of pairs of values.
"""
value = Regex(r'[-+]?[0-9]+(?:\.[0-9]*)?(?:e[-+]?[0-9]+)?', IGNORECASE)
value.setParseAction(lambda toks: float(toks[0]))
item = Suppress('(') + value + Suppress(',') + value + Suppress(')')
item.setParseAction(tuple)
lst = Suppress('[') + delimitedList(item) + Suppress(']')
lst.setParseAction(list)
def parse(s):
try:
return lst.parseString(s).asList()
except ParseBaseException as e:
raise ValueError(e)
return parse
def mark_transposed(tokens):
tokens[0].setTransposed(True)
return tokens
# What follows is a Pyparsing description of the grammar
symbol = Word(alphanums, bodyChars=alphanums + "_", min=1)
sign = Optional(oneOf("+ -"))
integer = Combine(sign + Word(nums)).setParseAction(lambda t: int(t[0]))
number = Combine(
Word("+-" + nums, nums) + Optional("." + Optional(Word(nums))) +
Optional(oneOf("e E") +
Word("+-" + nums, nums))).setParseAction(lambda t: float(t[0]))
LPAREN = Suppress("(")
RPAREN = Suppress(")")
LBRACE = Suppress("{")
RBRACE = Suppress("}")
LBRACKET = Suppress("[")
RBRACKET = Suppress("]")
END = Suppress(";")
PLUS = Literal("+")
MINUS = Literal("-")
single = number ^ symbol | QuotedString('"') | QuotedString("'")
tuple_ = Group(LPAREN + delimitedList(single) + RPAREN)
subscript_domain = (LBRACE +
Group(delimitedList(symbol)).setResultsName("subscripts") +
RBRACE)
def parse(cls,
content,
basedir=None,
resolve=True,
unresolved_value=DEFAULT_SUBSTITUTION):
"""parse a HOCON content
:param content: HOCON content to parse
:type content: basestring
:param resolve: if true, resolve substitutions
:type resolve: boolean
:param unresolved_value: assigned value value to unresolved substitution.
If overriden with a default value, it will replace all unresolved value to the default value.
If it is set to to pyhocon.STR_SUBSTITUTION then it will replace the value by its substitution expression (e.g., ${x})
:type unresolved_value: boolean
:return: a ConfigTree or a list
"""
unescape_pattern = re.compile(r'\\.')
def replace_escape_sequence(match):
value = match.group(0)
return cls.REPLACEMENTS.get(value, value)
def norm_string(value):
return unescape_pattern.sub(replace_escape_sequence, value)
def unescape_string(tokens):
return ConfigUnquotedString(norm_string(tokens[0]))
def parse_multi_string(tokens):
# remove the first and last 3 "
return tokens[0][3:-3]
def convert_number(tokens):
n = tokens[0]
try:
return int(n, 10)
except ValueError:
return float(n)
def safe_convert_number(tokens):
n = tokens[0]
try:
return int(n, 10)
except ValueError:
try:
return float(n)
except ValueError:
return n
def convert_period(tokens):
period_value = int(tokens.value)
period_identifier = tokens.unit
period_unit = next((single_unit for single_unit, values in
cls.get_supported_period_type_map().items()
if period_identifier in values))
return period(period_value, period_unit)
# ${path} or ${?path} for optional substitution
SUBSTITUTION_PATTERN = r"\$\{(?P<optional>\?)?(?P<variable>[^}]+)\}(?P<ws>[ \t]*)"
def create_substitution(instring, loc, token):
# remove the ${ and }
match = re.match(SUBSTITUTION_PATTERN, token[0])
variable = match.group('variable')
ws = match.group('ws')
optional = match.group('optional') == '?'
substitution = ConfigSubstitution(variable, optional, ws, instring,
loc)
return substitution
# ${path} or ${?path} for optional substitution
STRING_PATTERN = '"(?P<value>(?:[^"\\\\]|\\\\.)*)"(?P<ws>[ \t]*)'
def create_quoted_string(instring, loc, token):
# remove the ${ and }
match = re.match(STRING_PATTERN, token[0])
value = norm_string(match.group('value'))
ws = match.group('ws')
return ConfigQuotedString(value, ws, instring, loc)
def include_config(instring, loc, token):
url = None
file = None
required = False
if token[0] == 'required':
required = True
final_tokens = token[1:]
else:
final_tokens = token
if len(final_tokens) == 1: # include "test"
value = final_tokens[0].value if isinstance(
final_tokens[0], ConfigQuotedString) else final_tokens[0]
if value.startswith("http://") or value.startswith(
"https://") or value.startswith("file://"):
url = value
else:
file = value
elif len(final_tokens) == 2: # include url("test") or file("test")
value = final_tokens[1].value if isinstance(
token[1], ConfigQuotedString) else final_tokens[1]
if final_tokens[0] == 'url':
url = value
else:
file = value
if url is not None:
logger.debug('Loading config from url %s', url)
obj = ConfigFactory.parse_URL(url,
resolve=False,
required=required,
unresolved_value=NO_SUBSTITUTION)
elif file is not None:
path = file if basedir is None else os.path.join(basedir, file)
logger.debug('Loading config from file %s', path)
obj = ConfigFactory.parse_file(
path,
resolve=False,
required=required,
unresolved_value=NO_SUBSTITUTION)
else:
raise ConfigException(
'No file or URL specified at: {loc}: {instring}',
loc=loc,
instring=instring)
return ConfigInclude(obj if isinstance(obj, list) else obj.items())
@contextlib.contextmanager
def set_default_white_spaces():
default = ParserElement.DEFAULT_WHITE_CHARS
ParserElement.setDefaultWhitespaceChars(' \t')
yield
ParserElement.setDefaultWhitespaceChars(default)
with set_default_white_spaces():
assign_expr = Forward()
true_expr = Keyword("true", caseless=True).setParseAction(
replaceWith(True))
false_expr = Keyword("false", caseless=True).setParseAction(
replaceWith(False))
null_expr = Keyword("null", caseless=True).setParseAction(
replaceWith(NoneValue()))
# key = QuotedString('"', escChar='\\', unquoteResults=False) | Word(alphanums + alphas8bit + '._- /')
regexp_numbers = r'[+-]?(\d*\.\d+|\d+(\.\d+)?)([eE][+\-]?\d+)?(?=$|[ \t]*([\$\}\],#\n\r]|//))'
key = QuotedString('"', escChar='\\', unquoteResults=False) | \
Regex(regexp_numbers, re.DOTALL).setParseAction(safe_convert_number) | \
Word(alphanums + alphas8bit + '._- /')
eol = Word('\n\r').suppress()
eol_comma = Word('\n\r,').suppress()
comment = (Literal('#') | Literal('//')) - SkipTo(eol
| StringEnd())
comment_eol = Suppress(Optional(eol_comma) + comment)
comment_no_comma_eol = (comment | eol).suppress()
number_expr = Regex(regexp_numbers,
re.DOTALL).setParseAction(convert_number)
period_types = itertools.chain.from_iterable(
cls.get_supported_period_type_map().values())
period_expr = Regex(r'(?P<value>\d+)\s*(?P<unit>' +
'|'.join(period_types) +
')$').setParseAction(convert_period)
# multi line string using """
# Using fix described in http://pyparsing.wikispaces.com/share/view/3778969
multiline_string = Regex(
'""".*?"*"""',
re.DOTALL | re.UNICODE).setParseAction(parse_multi_string)
# single quoted line string
quoted_string = Regex(
r'"(?:[^"\\\n]|\\.)*"[ \t]*',
re.UNICODE).setParseAction(create_quoted_string)
# unquoted string that takes the rest of the line until an optional comment
# we support .properties multiline support which is like this:
# line1 \
# line2 \
# so a backslash precedes the \n
unquoted_string = Regex(
r'(?:[^^`+?!@*&"\[\{\s\]\}#,=\$\\]|\\.)+[ \t]*',
re.UNICODE).setParseAction(unescape_string)
substitution_expr = Regex(r'[ \t]*\$\{[^\}]+\}[ \t]*'
).setParseAction(create_substitution)
string_expr = multiline_string | quoted_string | unquoted_string
value_expr = period_expr | number_expr | true_expr | false_expr | null_expr | string_expr
include_content = (quoted_string | (
(Keyword('url') | Keyword('file')) - Literal('(').suppress() -
quoted_string - Literal(')').suppress()))
include_expr = (Keyword("include", caseless=True).suppress() +
(include_content |
(Keyword("required") - Literal('(').suppress() -
include_content - Literal(')').suppress()))
).setParseAction(include_config)
root_dict_expr = Forward()
dict_expr = Forward()
list_expr = Forward()
multi_value_expr = ZeroOrMore(comment_eol | include_expr
| substitution_expr | dict_expr
| list_expr | value_expr
| (Literal('\\') - eol).suppress())
# for a dictionary : or = is optional
# last zeroOrMore is because we can have t = {a:4} {b: 6} {c: 7} which is dictionary concatenation
inside_dict_expr = ConfigTreeParser(
ZeroOrMore(comment_eol | include_expr | assign_expr
| eol_comma))
inside_root_dict_expr = ConfigTreeParser(
ZeroOrMore(comment_eol | include_expr | assign_expr
| eol_comma),
root=True)
dict_expr << Suppress('{') - inside_dict_expr - Suppress('}')
root_dict_expr << Suppress('{') - inside_root_dict_expr - Suppress(
'}')
list_entry = ConcatenatedValueParser(multi_value_expr)
list_expr << Suppress('[') - ListParser(list_entry - ZeroOrMore(
eol_comma - list_entry)) - Suppress(']')
# special case when we have a value assignment where the string can potentially be the remainder of the line
assign_expr << Group(key - ZeroOrMore(comment_no_comma_eol) - (
dict_expr | (Literal('=') | Literal(':') | Literal('+=')) -
ZeroOrMore(comment_no_comma_eol) -
ConcatenatedValueParser(multi_value_expr)))
# the file can be { ... } where {} can be omitted or []
config_expr = ZeroOrMore(comment_eol | eol) + (
list_expr | root_dict_expr
| inside_root_dict_expr) + ZeroOrMore(comment_eol | eol_comma)
config = config_expr.parseString(content, parseAll=True)[0]
if resolve:
allow_unresolved = resolve and unresolved_value is not DEFAULT_SUBSTITUTION and unresolved_value is not MANDATORY_SUBSTITUTION
has_unresolved = cls.resolve_substitutions(
config, allow_unresolved)
if has_unresolved and unresolved_value is MANDATORY_SUBSTITUTION:
raise ConfigSubstitutionException(
'resolve cannot be set to True and unresolved_value to MANDATORY_SUBSTITUTION'
)
if unresolved_value is not NO_SUBSTITUTION and unresolved_value is not DEFAULT_SUBSTITUTION:
cls.unresolve_substitutions_to_value(config, unresolved_value)
return config
def parse_algebra(self):
"""
Parse an algebraic expression into a tree.
Store a `pyparsing.ParseResult` in `self.tree` with proper groupings to
reflect parenthesis and order of operations. Leave all operators in the
tree and do not parse any strings of numbers into their float versions.
Adding the groups and result names makes the `repr()` of the result
really gross. For debugging, use something like
print OBJ.tree.asXML()
"""
# 0.33 or 7 or .34 or 16.
number_part = Word(nums)
inner_number = (number_part +
Optional("." + Optional(number_part))) | ("." +
number_part)
# pyparsing allows spaces between tokens--`Combine` prevents that.
inner_number = Combine(inner_number)
# SI suffixes and percent.
number_suffix = MatchFirst(Literal(k) for k in SUFFIXES.keys())
# 0.33k or 17
plus_minus = Literal('+') | Literal('-')
number = Group(
Optional(plus_minus) + inner_number + Optional(
CaselessLiteral("E") + Optional(plus_minus) + number_part) +
Optional(number_suffix))
number = number("number")
# Predefine recursive variables.
expr = Forward()
# Handle variables passed in. They must start with a letter
# and may contain numbers and underscores afterward.
inner_varname = Combine(
Word(alphas, alphanums + "_") + ZeroOrMore("'"))
# Alternative variable name in tensor format
# Tensor name must start with a letter, continue with alphanums
# Indices may be alphanumeric
# e.g., U_{ijk}^{123}
upper_indices = Literal("^{") + Word(alphanums) + Literal("}")
lower_indices = Literal("_{") + Word(alphanums) + Literal("}")
tensor_lower = Combine(
Word(alphas, alphanums) + lower_indices + ZeroOrMore("'"))
tensor_mixed = Combine(
Word(alphas, alphanums) + Optional(lower_indices) + upper_indices +
ZeroOrMore("'"))
# Test for mixed tensor first, then lower tensor alone, then generic variable name
varname = Group(tensor_mixed | tensor_lower
| inner_varname)("variable")
varname.setParseAction(self.variable_parse_action)
# Same thing for functions.
function = Group(inner_varname + Suppress("(") + expr +
Suppress(")"))("function")
function.setParseAction(self.function_parse_action)
atom = number | function | varname | "(" + expr + ")"
atom = Group(atom)("atom")
# Do the following in the correct order to preserve order of operation.
pow_term = atom + ZeroOrMore("^" + atom)
pow_term = Group(pow_term)("power")
par_term = pow_term + ZeroOrMore('||' + pow_term) # 5k || 4k
par_term = Group(par_term)("parallel")
prod_term = par_term + ZeroOrMore(
(Literal('*') | Literal('/')) + par_term) # 7 * 5 / 4
prod_term = Group(prod_term)("product")
sum_term = Optional(plus_minus) + prod_term + ZeroOrMore(
plus_minus + prod_term) # -5 + 4 - 3
sum_term = Group(sum_term)("sum")
# Finish the recursion.
expr << sum_term # pylint: disable=pointless-statement
self.tree = (expr + stringEnd).parseString(self.math_expr)[0]
def define_parser(self):
""" Defines xdot grammar.
@see: http://graphviz.org/doc/info/output.html#d:xdot """
# Common constructs.
point = Group(
integer.setResultsName("x") + integer.setResultsName("y"))
n_points = (integer.setResultsName("n") +
OneOrMore(point).setResultsName("points"))
n_bytes = Suppress(integer) + Suppress(minus) + \
Word(printables).setResultsName("b")
justify = ToInteger(Literal("-1") | Literal("0")
| Literal("1")).setResultsName("j")
# Attributes ----------------------------------------------------------
# Set fill color. The color value consists of the n bytes following
# the '-'.
fill = (Literal("C").suppress() + Suppress(integer) + Suppress(minus) +
colour.setResultsName("color")).setResultsName("fill")
# Set pen color. The color value consists of the n bytes following '-'.
stroke = (Literal("c").suppress() + Suppress(integer) +
Suppress(minus) +
colour.setResultsName("color")).setResultsName("stroke")
# Set font. The font size is s points. The font name consists of the
# n bytes following '-'.
font = (Literal("F").suppress() + real.setResultsName("s") +
n_bytes).setResultsName("font")
# Set style attribute. The style value consists of the n bytes
# following '-'. The syntax of the value is the same as specified for
# a styleItem in style.
style = (Literal("S").suppress() + n_bytes).setResultsName("style")
# Shapes --------------------------------------------------------------
# Filled ellipse ((x-x0)/w)^2 + ((y-y0)/h)^2 = 1
filled_ellipse = (
Literal("E").suppress() + integer.setResultsName("x0") +
integer.setResultsName("y0") + integer.setResultsName("w") +
integer.setResultsName("h")).setResultsName("filled_ellipse")
# Unfilled ellipse ((x-x0)/w)^2 + ((y-y0)/h)^2 = 1
ellipse = (Literal("e").suppress() + integer.setResultsName("x0") +
integer.setResultsName("y0") + integer.setResultsName("w") +
integer.setResultsName("h")).setResultsName("ellipse")
# Filled polygon using the given n points.
filled_polygon = (Literal("P").suppress() +
n_points).setResultsName("filled_polygon")
# Unfilled polygon using the given n points.
polygon = (Literal("p").suppress() +
n_points).setResultsName("polygon")
# Polyline using the given n points.
polyline = (Literal("L").suppress() +
n_points).setResultsName("polyline")
# B-spline using the given n control points.
bspline = (Literal("B").suppress() +
n_points).setResultsName("bspline")
# Filled B-spline using the given n control points.
filled_bspline = (Literal("b").suppress() +
n_points).setResultsName("filled_bspline")
# Text drawn using the baseline point (x,y). The text consists of the
# n bytes following '-'. The text should be left-aligned (centered,
# right-aligned) on the point if j is -1 (0, 1), respectively. The
# value w gives the width of the text as computed by the library.
text = (Literal("T").suppress() + integer.setResultsName("x") +
integer.setResultsName("y") + justify +
integer.setResultsName("w") + n_bytes).setResultsName("text")
# Externally-specified image drawn in the box with lower left corner
# (x,y) and upper right corner (x+w,y+h). The name of the image
# consists of the n bytes following '-'. This is usually a bitmap
# image. Note that the image size, even when converted from pixels to
# points, might be different from the required size (w,h). It is
# assumed the renderer will perform the necessary scaling.
image = (Literal("I").suppress() + integer.setResultsName("x") +
integer.setResultsName("y") + integer.setResultsName("w") +
integer.setResultsName("h") + n_bytes).setResultsName("image")
# The value of the drawing attributes consists of the concatenation of
# some (multi-)set of the 13 rendering or attribute operations.
value = (Optional(quote).suppress() +
OneOrMore(filled_ellipse | ellipse | filled_polygon | polygon
| polyline | bspline | filled_bspline | text | fill
| stroke | font | style | image) +
Optional(quote).suppress()).setResultsName("value")
# Drawing operation.
# draw_ = Literal("_draw_") + Suppress(equals) + value
# # Label drawing.
# ldraw_ = Literal("_ldraw_") + Suppress(equals) + value
# # Edge head arrowhead drawing.
# hdraw_ = Literal("_hdraw_") + Suppress(equals) + value
# # Edge tail arrowhead drawing.
# tdraw_ = Literal("_tdraw_") + Suppress(equals) + value
# # Edge head label drawing.
# hldraw_ = Literal("_hldraw_") + Suppress(equals) + value
# # Edge tail label drawing.
# tldraw_ = Literal("_tldraw_") + Suppress(equals) + value
# Parse actions.
# n_points.setParseAction(self.proc_points)
# Attribute parse actions.
fill.setParseAction(self.proc_fill_color)
stroke.setParseAction(self.proc_stroke_color)
font.setParseAction(self.proc_font)
style.setParseAction(self.proc_style)
# Shape parse actions.
filled_ellipse.setParseAction(self.proc_filled_ellipse)
ellipse.setParseAction(self.proc_unfilled_ellipse)
filled_polygon.setParseAction(self.proc_filled_polygon)
polygon.setParseAction(self.proc_unfilled_polygon)
polyline.setParseAction(self.proc_polyline)
bspline.setParseAction(self.proc_unfilled_bspline)
filled_bspline.setParseAction(self.proc_filled_bspline)
text.setParseAction(self.proc_text)
image.setParseAction(self.proc_image)
return value
from pyparsing import Word, nums, oneOf, Suppress, restOfLine, alphas, alphanums, Group, ZeroOrMore, Optional, Keyword
# Parses Spring log lines (logs are taken from ENBD project)
log_sample = '''
2016-08-01 11:27:21.047 WARN 22458 --- [http-bio-8080-exec-24] c.m.enbd.core.AbstractEnbdController : POST /goal/daily: User haven't defined a goal yet
2016-08-01 17:54:47.908 INFO 22458 --- [http-bio-8080-exec-27] com.monitise.enbd.core.RequestFilter : Handling request, /version, POST
2016-08-01 17:54:47.909 INFO 22458 --- [http-bio-8080-exec-30] com.monitise.enbd.core.RequestFilter : Handling request, /features, POST
2016-08-01 17:54:47.914 DEBUG 22458 --- [http-bio-8080-exec-30] c.m.enbd.core.AbstractEnbdController : getting IOS features
2016-08-01 17:54:47.924 INFO 22458 --- [http-bio-8080-exec-27] c.m.enbd.core.AbstractEnbdController : checking version for device code: 1 and device OS: 10.0 and version: 1.0.3'''
date = Word(nums + '-')
time = Word(nums + ':.')
level = Keyword('INFO') | Keyword('WARN') | Keyword('DEBUG') # oneOf(['INFO', 'WARN', 'DEBUG'])
pid = Word(nums)
thread = Suppress('[') + Word(alphanums + '-') + Suppress(']')
source = Word(alphas + '.')
message = restOfLine
log_line = Group(date + time + level + pid + Suppress('---') + thread + source + Suppress(':') + message)
logs = ZeroOrMore(log_line)
print(logs.parseString(log_sample))
# So, if you design log strings that can be parsed, you can actually parse them
def get_fragment_grammar(sdkconfig, fragment_file):
# Match header [mapping]
header = Suppress('[') + Suppress('mapping') + Suppress(']')
# There are three possible patterns for mapping entries:
# obj:symbol (scheme)
# obj (scheme)
# * (scheme)
obj = Fragment.ENTITY.setResultsName('object')
symbol = Suppress(':') + Fragment.IDENTIFIER.setResultsName('symbol')
scheme = Suppress('(') + Fragment.IDENTIFIER.setResultsName(
'scheme') + Suppress(')')
pattern1 = Group(obj + symbol + scheme)
pattern2 = Group(obj + scheme)
pattern3 = Group(Literal(Entity.ALL).setResultsName('object') + scheme)
mapping_entry = pattern1 | pattern2 | pattern3
# To simplify parsing, classify groups of condition-mapping entry into two types: normal and default
# A normal grouping is one with a non-default condition. The default grouping is one which contains the
# default condition
mapping_entries = Group(
ZeroOrMore(mapping_entry)).setResultsName('mappings')
normal_condition = Suppress(':') + originalTextFor(
SDKConfig.get_expression_grammar())
default_condition = Optional(
Suppress(':') + Literal(DeprecatedMapping.DEFAULT_CONDITION))
normal_group = Group(
normal_condition.setResultsName('condition') + mapping_entries)
default_group = Group(default_condition +
mapping_entries).setResultsName('default_group')
normal_groups = Group(
ZeroOrMore(normal_group)).setResultsName('normal_groups')
# Any mapping fragment definition can have zero or more normal group and only one default group as a last entry.
archive = Suppress('archive') + Suppress(
':') + Fragment.ENTITY.setResultsName('archive')
entries = Suppress('entries') + Suppress(':') + (
normal_groups + default_group).setResultsName('entries')
mapping = Group(header + archive + entries)
mapping.ignore('#' + restOfLine)
def parsed_deprecated_mapping(pstr, loc, toks):
fragment = Mapping()
fragment.archive = toks[0].archive
fragment.name = re.sub(r'[^0-9a-zA-Z]+', '_', fragment.archive)
fragment.deprecated = True
fragment.entries = set()
condition_true = False
for entries in toks[0].entries[0]:
condition = next(iter(entries.condition.asList())).strip()
condition_val = sdkconfig.evaluate_expression(condition)
if condition_val:
for entry in entries[1]:
fragment.entries.add(
(entry.object,
None if entry.symbol == '' else entry.symbol,
entry.scheme))
condition_true = True
break
if not fragment.entries and not condition_true:
try:
entries = toks[0].entries[1][1]
except IndexError:
entries = toks[0].entries[1][0]
for entry in entries:
fragment.entries.add(
(entry.object,
None if entry.symbol == '' else entry.symbol,
entry.scheme))
if not fragment.entries:
fragment.entries.add(('*', None, 'default'))
dep_warning = str(
ParseFatalException(
pstr, loc,
'Warning: Deprecated old-style mapping fragment parsed in file %s.'
% fragment_file))
print(dep_warning)
return fragment
mapping.setParseAction(parsed_deprecated_mapping)
return mapping
headerList[headerName] = structt.asDict()
def addToAnnotationDict(annotateName, annotate):
s = annotate[1]
# first remove the quotes
if s.startswith("'''"): s = s[3:-3]
if s.startswith('"'): s = s[1:-1]
annotateDict[annotate['name']] = s
comment = '## ' + restOfLine
#comment = '#' + restOfLine
CMNT = Optional(cStyleComment("comment"))
CMNT2 = Optional(
(Suppress('//') +
restOfLine("comment2"))) #Optional(cppStyleComment("comment2"))
STRQ3 = QuotedString("'''", multiline=True)
ANNOTSTR = (QuotedString("'''", multiline=True) | quotedString)
#IDENTIFIER = Regex(r'[a-zA-Z_][a-zA-Z_0-9]*')
#INTEGER = Regex(r'([+-]?(([1-9][0-9]*)|0+))')
#IDENTIFIER = Word(alphas+"_", alphas+nums+"_" )
INT_DECI = Regex('([+-]?(([1-9][0-9]*)|0+))')
INT_OCT = Regex('(0[0-7]*)')
INT_HEX = Regex('(0[xX][0-9a-fA-F]*)')
INT = INT_HEX | INT_OCT | INT_DECI
FLOAT = Regex(
'[+-]?(((\d+\.\d*)|(\d*\.\d+))([eE][-+]?\d+)?)|(\d*[eE][+-]?\d+)')
SIZE = INT
#VARNAME = IDENTIFIER
##ident = Word(alphas+"_",alphanums+"_").setName("identifier")
DOUBLE = Regex(r"[0-9]+\.[0-9]*%(e)s|\.([0-9])+%(e)s|[0-9]+%(e)s" % {"e": EXPONENT_re})
# DOUBLE.setResultsName('double')
DOUBLE.setParseAction(lambda x: rdflib.Literal(x[0], datatype=rdflib.XSD.double))
# [149] INTEGER_POSITIVE ::= '+' INTEGER
INTEGER_POSITIVE = Suppress("+") + INTEGER.copy().leaveWhitespace()
# [150] DECIMAL_POSITIVE ::= '+' DECIMAL
DECIMAL_POSITIVE = Suppress("+") + DECIMAL.copy().leaveWhitespace()
# [151] DOUBLE_POSITIVE ::= '+' DOUBLE
DOUBLE_POSITIVE = Suppress("+") + DOUBLE.copy().leaveWhitespace()
# [152] INTEGER_NEGATIVE ::= '-' INTEGER
INTEGER_NEGATIVE = Suppress("-") + INTEGER.copy().leaveWhitespace()
INTEGER_NEGATIVE.setParseAction(lambda x: neg(x[0]))
# [153] DECIMAL_NEGATIVE ::= '-' DECIMAL
DECIMAL_NEGATIVE = Suppress("-") + DECIMAL.copy().leaveWhitespace()
DECIMAL_NEGATIVE.setParseAction(lambda x: neg(x[0]))
# [154] DOUBLE_NEGATIVE ::= '-' DOUBLE
DOUBLE_NEGATIVE = Suppress("-") + DOUBLE.copy().leaveWhitespace()
DOUBLE_NEGATIVE.setParseAction(lambda x: neg(x[0]))
# [160] ECHAR ::= '\' [tbnrf\"']
# ECHAR = Regex('\\\\[tbnrf"\']')
# [158] STRING_LITERAL_LONG1 ::= "'''" ( ( "'" | "''" )? ( [^'\] | ECHAR ) )* "'''"
def read_dot(path):
"""Generates an alias.ArgumentationFramework from a DOT graph
description (.dot) file.
Parameters
----------
path : file or string
File, directory or filename to be read.
Returns
-------
framework : alias ArgumentationFramework
Examples
--------
References
----------
"""
try:
from pyparsing import Word, Literal, alphas, alphanums, nums, OneOrMore
from pyparsing import Forward, Optional, Keyword, Group, Suppress, ParseException
except ImportError:
raise ImportError("read_dot requires pyparsing")
if not isinstance(path, str):
return
# Define DOT grammar
# Punctuation and keywords
LBR, RBR, SCOL, COMMA, EQ, LSQ, RSQ, COL = map(Literal, "{};,=[]:")
strict, graph, digraph, node, edge, subgraph = map(
Keyword, "strict graph digraph node edge subgraph".split())
# Recursive rules
stmt_list = Forward()
a_list = Forward()
edgeRHS = Forward()
attr_list = Forward()
comp = (Literal("n") | Literal("ne") | Literal("e") | Literal("se")
| Literal("s") | Literal("sw") | Literal("w") | Literal("nw")
| Literal("c") | Literal("_")).setName("comp")
ID = Word(alphas, alphanums).setName("ID")
edgeop = Suppress(Literal("--") | Literal("->"))
port = (COL + ID + Optional((COL + comp))) | (COL + comp)
node_id = ID + Optional(port)
subg = (subgraph + Optional(ID)) + LBR + stmt_list + RBR
edgeRHS << OneOrMore(edgeop + (node_id | subg))
# Statements & attributes
node_stmt = node_id("arg*") + Optional(attr_list)
edge_stmt = ((node_id | subg) + edgeRHS)("att*") + Optional(attr_list)
attr_stmt = (graph | node | edge) + attr_list
a_list << OneOrMore(ID + EQ + ID + Optional(SCOL | COMMA))
attr_list << OneOrMore((LSQ + Optional(a_list) + RSQ))
stmt = (edge_stmt | node_stmt | attr_stmt | (ID + EQ + ID) | subg)
stmt_list << OneOrMore(stmt + Optional(SCOL))
dot = OneOrMore(
Optional(strict) + (digraph | graph)("gtype") + Optional(ID)("gname") +
LBR + stmt_list + RBR)
f = open(path, 'r')
f = f.read()
try:
parsed = dot.parseString(f)
except ParseException as e:
raise al.ParsingException(e)
if parsed['gtype'] == 'graph':
raise al.ParsingException('Graph must be a directed graph (digraph).')
if 'gname' in parsed.keys():
framework = al.ArgumentationFramework(parsed['gname'])
else:
head, tail = ntpath.split(path)
framework = al.ArgumentationFramework(tail)
if 'arg' in parsed.keys():
for arg in parsed['arg']:
framework.add_argument(arg)
if 'att' in parsed.keys():
for edge in parsed['att']:
prev = -1
for curr in edge:
if prev >= 0:
framework.add_attack((edge[prev], curr))
prev = prev + 1
return framework
def initialize(self):
ParserElement.setDefaultWhitespaceChars(' \t\r')
integer = Regex(r"[+-]?\d+") \
.setParseAction(lambda s,l,t: [ int(t[0]) ])
number = Regex(r"[+-]?(\d+(\.\d*)?|\.\d+)([eE][+-]?\d+)?") \
.setParseAction(lambda s,l,t: [ float(t[0]) ])
color = Regex(r"#([0-9a-fA-F]{6})")
angle = "'" + Regex(r"(360|3[0-5][0-9]|[12][0-9]{2}|[0-9]{1,2})") \
.setParseAction(lambda s,l,t: [ int(t[0]) ])
alpha = "'" + Regex(r"(360|3[0-5][0-9]|[12][0-9]{2}|[0-9]{1,2})") \
.setParseAction(lambda s,l,t: [ int(t[0]) ])
variable = Word(alphas, exact=1).setParseAction(self.addVar)
colon = Literal(":").suppress()
comma = Literal(",")
lBrace = Literal("(")
rBrace = Literal(")")
lBracket = Literal("[")
rBracket = Literal("]")
lAngle = Literal("<")
rAngle = Literal(">")
plus = Literal("+")
minus = Literal("-")
FTerm = Literal("F")
fTerm = Literal("f")
ZTerm = Literal("Z")
zTerm = Literal("z")
xTerm = Literal("x")
cTerm = Literal("c")
eol = OneOrMore(LineEnd()).suppress()
param = ( angle | color | "!" + number | "|" + number )
self.pList = lBrace + param + ZeroOrMore(comma + param) + rBrace
literal = ((lBracket + ( variable + Optional(self.pList)
| plus + Optional(self.pList) | minus + Optional(self.pList) ) + rBracket)
| (variable + Optional(self.pList) | plus + Optional(self.pList)
| minus + Optional(self.pList)))
terminal = (ZTerm | zTerm | FTerm | fTerm | xTerm | cTerm
| plus | minus | lBracket | rBracket)
lprod = (
(OneOrMore(terminal) + lAngle + variable + rAngle + OneOrMore(terminal))
| (OneOrMore(terminal) + lAngle + variable)
| (variable + rAngle + OneOrMore(terminal))
| variable )
rProd = OneOrMore(literal | terminal)
comment = Suppress((LineStart() + "#" + SkipTo(eol, include=True)))
rules = (
(lprod + Literal("=") + rProd + eol).setParseAction(self.addRule) \
| comment )
defaults = ( ( ("Dimensions" + colon + integer + comma + integer)
| ("Position" + colon + integer + comma + integer)
| ("Iterations" + colon + integer)
| ("Angle" + colon + angle)
| ("Linelength" + colon + number)
| ("Linewidth" + colon + number)
| ("Linecolor" + colon + color)
| ("Background" + colon + color)
| ("Axiom" + colon + rProd) ) + eol ).setParseAction(self.setAttribute)
header = ( defaults | comment )
self.grammar = Suppress(ZeroOrMore(LineEnd())) \
+ ZeroOrMore(header) \
+ OneOrMore(rules)
try:
L = self.grammar.parseString( self.stream )
except ParseException, err:
print err.line
print " "*(err.column-1) + "^"
print err
def convertDict(d):
return dict(d[0])
def convertTuple(t):
return tuple(t[0])
omcRecord = Forward()
omcValue = Forward()
TRUE = Keyword("true").setParseAction(replaceWith(True))
FALSE = Keyword("false").setParseAction(replaceWith(False))
NONE = (Keyword("NONE") + Suppress("(") + Suppress(")")).setParseAction(
replaceWith(None))
SOME = (Suppress(Keyword("SOME")) + Suppress("(") + omcValue + Suppress(")"))
omcString = QuotedString(quoteChar='"', escChar='\\',
multiline=True).setParseAction(convertString)
omcNumber = Combine(
Optional('-') + ('0' | Word('123456789', nums)) +
Optional('.' + Word(nums)) +
Optional(Word('eE', exact=1) + Word(nums + '+-', nums)))
ident = Word(alphas + "_", alphanums + "_") | Combine(
"'" + Word(alphanums + "!#$%&()*+,-./:;<>=?@[]^{}|~ ") + "'")
fqident = Forward()
fqident << ((ident + "." + fqident) | ident)
omcValues = delimitedList(omcValue)
def _create_parser(self):
semicolon = Suppress(Word(";"))
quote = Suppress(Word("\""))
op = Suppress(Word("{"))
cl = Suppress(Word("}"))
opp = Suppress(Word("("))
clp = Suppress(Word(")"))
lt = Suppress(Word("<"))
gt = Suppress(Word(">"))
eq = Suppress(Word("="))
identifier = Word(alphas + "_", alphanums + "_")
typeIdentifier = Word(alphas + "_", alphanums + "_:")
structIdentifer = Group(
typeIdentifier.setResultsName('type') + identifier.setResultsName('identifier') + Optional(eq) + Optional(
CharsNotIn(";").setResultsName('defaultValue')) + semicolon)
structIdentifers = Group(OneOrMore(structIdentifer))
## Imports
idslImport = Suppress(Word("import")) + quote + CharsNotIn("\";").setResultsName('path') + quote + semicolon
idslImports = ZeroOrMore(idslImport)
structDef = Word("struct").setResultsName('type') + identifier.setResultsName(
'name') + op + structIdentifers.setResultsName("structIdentifiers") + cl + semicolon
dictionaryDef = Word("dictionary").setResultsName('type') + lt + CharsNotIn("<>").setResultsName(
'content') + gt + identifier.setResultsName('name') + semicolon
sequenceDef = Word("sequence").setResultsName('type') + lt + typeIdentifier.setResultsName(
'typeSequence') + gt + identifier.setResultsName('name') + semicolon
enumDef = Word("enum").setResultsName('type') + identifier.setResultsName('name') + op + CharsNotIn(
"{}").setResultsName('content') + cl + semicolon
exceptionDef = Word("exception").setResultsName('type') + identifier.setResultsName('name') + op + CharsNotIn(
"{}").setResultsName('content') + cl + semicolon
raiseDef = Suppress(Word("throws")) + typeIdentifier + ZeroOrMore(Literal(',') + typeIdentifier)
decoratorDef = Literal('idempotent') | Literal('out')
retValDef = typeIdentifier.setResultsName('ret')
firstParam = Group(Optional(decoratorDef.setResultsName('decorator')) + typeIdentifier.setResultsName(
'type') + identifier.setResultsName('name'))
nextParam = Suppress(Word(',')) + firstParam
params = firstParam + ZeroOrMore(nextParam)
remoteMethodDef = Group(Optional(decoratorDef.setResultsName('decorator')) + retValDef.setResultsName(
'ret') + typeIdentifier.setResultsName('name') + opp + Optional(params).setResultsName(
'params') + clp + Optional(raiseDef.setResultsName('raise')) + semicolon)
interfaceDef = Word('interface').setResultsName('type') + typeIdentifier.setResultsName('name') + op + Group(
ZeroOrMore(remoteMethodDef)).setResultsName('methods') + cl + semicolon
moduleContent = Group(structDef | enumDef | exceptionDef | dictionaryDef | sequenceDef | interfaceDef)
module = Suppress(Word("module")) + identifier.setResultsName("name") + op + ZeroOrMore(
moduleContent).setResultsName("contents") + cl + semicolon
IDSL = idslImports.setResultsName("imports") + module.setResultsName("module")
IDSL.ignore(cppStyleComment)
return IDSL
def parse_line(attribute, string):
Grammar = Suppress(Keyword('mpc.{}'.format(attribute)) + Keyword('=')) + String('data') + Suppress(Literal(';') + Optional(Comments))
result, i, j = Grammar.scanString(string).next()
return [int_else_float_except_string(s) for s in result['data'].asList()]
def _sql_comment(expr):
return lineStart + Suppress(Literal("-- ")) + expr
from __future__ import print_function, absolute_import
import os
from builtins import open
import logging
import numpy as np
from pyparsing import Word, nums, alphanums, LineEnd, Suppress, Literal, restOfLine, OneOrMore, Optional, Keyword, Group, printables
from ...utils import int_else_float_except_string
logger = logging.getLogger(__file__)
Float = Word(nums + '.' + '-' + '+' + 'e')
Name = Word(alphanums)
String = Optional(Suppress("'")) + Word(printables, alphanums) + Optional(Suppress("'"))
NL = LineEnd()
Comments = Suppress(Literal('%')) + restOfLine
def parse_file(attribute, string):
if attribute in ['gen', 'gencost', 'bus', 'branch'] and attribute in string:
return parse_table(attribute, string)
elif attribute in ['version', 'baseMVA'] and attribute in string:
return parse_line(attribute, string)
else:
logger.debug("Unable to parse mpc.%s. Please check the input file or contact the developer.", attribute)
return None
def parse_line(attribute, string):
from pyparsing import (CharsNotIn, Optional, Suppress, Word, Regex,
ParseException, alphas, nums)
from angela2.utils.caching import cached
VARIABLE = Word(alphas + '_', alphas + nums + '_').setResultsName('variable')
OP = Regex(r'(\+|\-|\*|/|//|%|\*\*|>>|<<|&|\^|\|)?=').setResultsName(
'operation')
EXPR = CharsNotIn('#').setResultsName('expression')
COMMENT = CharsNotIn('#').setResultsName('comment')
STATEMENT = VARIABLE + OP + EXPR + Optional(Suppress('#') + COMMENT)
@cached
def parse_statement(code):
'''
parse_statement(code)
Parses a single line of code into "var op expr".
Parameters
----------
code : str
A string containing a single statement of the form
``var op expr # comment``, where the ``# comment`` part is optional.
Returns
-------
var, op, expr, comment : str, str, str, str
The four parts of the statement.
#
# MS-GRAMMAR: lifecycle-handler-name = "Class_Initialize" / "Class_Terminate"
lifecycle_handler_name = CaselessKeyword("Class_Initialize") | CaselessKeyword(
"Class_Terminate")
implemented_name = identifier # duplicate, not used
event_handler_name = identifier # duplicate, not used
prefixed_name = identifier | lifecycle_handler_name # simplified
subroutine_name = identifier | lifecycle_handler_name # simplified
# MS-GRAMMAR: typed_name = identifier + optional type_suffix => simplified
# MS-GRAMMAR: function_name = typed_name | subroutine_name
function_name = Combine(
identifier + Suppress(Optional(type_suffix))) | lifecycle_handler_name
# 5.3.1 Procedure Declarations
#
# MS-GRAMMAR: end-label = statement-label-definition
#end_label = statement_label_definition
# MS-GRAMMAR: procedure-tail = [WS] LINE-END / single-quote comment-body / ":" rem-statement
procedure_tail = FollowedBy(
line_terminator) | comment_single_quote | Literal(":") + rem_statement
# NOTE: rem statement does NOT include the line terminator => BUG?
# TODO: here i assume that procedure tail does NOT include the line terminator
['%s:%s' % (k, self.attrs[k]) for k in sorted(self.attrs)])
return 'attr(%s)' % sattrs
def __repr__(self):
rattrs = ",".join(
['%r:%r' % (k, self.attrs[k]) for k in sorted(self.attrs)])
return 'Attr({%s})' % rattrs
@staticmethod
def parse_action(s, loc, tokens):
where = W(s, loc)
attrs = tokens.get('attrs', None)
# Python 3 only
# attrs = {k: v for k, v in attrs.items()}
attrs = dict([(k, v) for k, v in attrs.items()])
return Attr(attrs, where=where)
attr_spec = Dict(
delimitedList(Group(
Word(alphanums) + Suppress(Literal(':')) +
contract_expression('value')),
delim=';'))('attrs')
attrs_spec = ('(' - attr_spec - ')')
attr_contract = Keyword('attr') - attrs_spec
attr_contract.setParseAction(Attr.parse_action)
add_contract(attr_contract)
add_keyword('attr')
def __init__(self, fragment_file, sdkconfig):
try:
fragment_file = open(fragment_file, 'r')
except TypeError:
pass
path = os.path.realpath(fragment_file.name)
indent_stack = [1]
class parse_ctx:
fragment = None # current fragment
key = '' # current key
keys = list() # list of keys parsed
key_grammar = None # current key grammar
@staticmethod
def reset():
parse_ctx.fragment_instance = None
parse_ctx.key = ''
parse_ctx.keys = list()
parse_ctx.key_grammar = None
def fragment_type_parse_action(toks):
parse_ctx.reset()
parse_ctx.fragment = FRAGMENT_TYPES[
toks[0]]() # create instance of the fragment
return None
def expand_conditionals(toks, stmts):
try:
stmt = toks['value']
stmts.append(stmt)
except KeyError:
try:
conditions = toks['conditional']
for condition in conditions:
try:
_toks = condition[1]
_cond = condition[0]
if sdkconfig.evaluate_expression(_cond):
expand_conditionals(_toks, stmts)
break
except IndexError:
expand_conditionals(condition[0], stmts)
except KeyError:
for tok in toks:
expand_conditionals(tok, stmts)
def key_body_parsed(pstr, loc, toks):
stmts = list()
expand_conditionals(toks, stmts)
if parse_ctx.key_grammar.min and len(
stmts) < parse_ctx.key_grammar.min:
raise ParseFatalException(
pstr, loc,
"fragment requires at least %d values for key '%s'" %
(parse_ctx.key_grammar.min, parse_ctx.key))
if parse_ctx.key_grammar.max and len(
stmts) > parse_ctx.key_grammar.max:
raise ParseFatalException(
pstr, loc,
"fragment requires at most %d values for key '%s'" %
(parse_ctx.key_grammar.max, parse_ctx.key))
try:
parse_ctx.fragment.set_key_value(parse_ctx.key, stmts)
except Exception as e:
raise ParseFatalException(
pstr, loc,
"unable to add key '%s'; %s" % (parse_ctx.key, str(e)))
return None
key = Word(alphanums + '_') + Suppress(':')
key_stmt = Forward()
condition_block = indentedBlock(key_stmt, indent_stack)
key_stmts = OneOrMore(condition_block)
key_body = Suppress(key) + key_stmts
key_body.setParseAction(key_body_parsed)
condition = originalTextFor(
SDKConfig.get_expression_grammar()).setResultsName('condition')
if_condition = Group(
Suppress('if') + condition + Suppress(':') + condition_block)
elif_condition = Group(
Suppress('elif') + condition + Suppress(':') + condition_block)
else_condition = Group(
Suppress('else') + Suppress(':') + condition_block)
conditional = (if_condition + Optional(OneOrMore(elif_condition)) +
Optional(else_condition)).setResultsName('conditional')
def key_parse_action(pstr, loc, toks):
key = toks[0]
if key in parse_ctx.keys:
raise ParseFatalException(
pstr, loc,
"duplicate key '%s' value definition" % parse_ctx.key)
parse_ctx.key = key
parse_ctx.keys.append(key)
try:
parse_ctx.key_grammar = parse_ctx.fragment.get_key_grammars(
)[key]
key_grammar = parse_ctx.key_grammar.grammar
except KeyError:
raise ParseFatalException(
pstr, loc, "key '%s' is not supported by fragment" % key)
except Exception as e:
raise ParseFatalException(
pstr, loc, "unable to parse key '%s'; %s" % (key, str(e)))
key_stmt << (conditional
| Group(key_grammar).setResultsName('value'))
return None
def name_parse_action(pstr, loc, toks):
parse_ctx.fragment.name = toks[0]
key.setParseAction(key_parse_action)
ftype = Word(alphas).setParseAction(fragment_type_parse_action)
fid = Suppress(':') + Word(alphanums + '_.').setResultsName('name')
fid.setParseAction(name_parse_action)
header = Suppress('[') + ftype + fid + Suppress(']')
def fragment_parse_action(pstr, loc, toks):
key_grammars = parse_ctx.fragment.get_key_grammars()
required_keys = set(
[k for (k, v) in key_grammars.items() if v.required])
present_keys = required_keys.intersection(set(parse_ctx.keys))
if present_keys != required_keys:
raise ParseFatalException(
pstr, loc, 'required keys %s for fragment not found' %
list(required_keys - present_keys))
return parse_ctx.fragment
fragment_stmt = Forward()
fragment_block = indentedBlock(fragment_stmt, indent_stack)
fragment_if_condition = Group(
Suppress('if') + condition + Suppress(':') + fragment_block)
fragment_elif_condition = Group(
Suppress('elif') + condition + Suppress(':') + fragment_block)
fragment_else_condition = Group(
Suppress('else') + Suppress(':') + fragment_block)
fragment_conditional = (
fragment_if_condition +
Optional(OneOrMore(fragment_elif_condition)) +
Optional(fragment_else_condition)).setResultsName('conditional')
fragment = (header +
OneOrMore(indentedBlock(key_body, indent_stack,
False))).setResultsName('value')
fragment.setParseAction(fragment_parse_action)
fragment.ignore('#' + restOfLine)
deprecated_mapping = DeprecatedMapping.get_fragment_grammar(
sdkconfig, fragment_file.name).setResultsName('value')
fragment_stmt << (Group(deprecated_mapping) | Group(fragment)
| Group(fragment_conditional))
def fragment_stmt_parsed(pstr, loc, toks):
stmts = list()
expand_conditionals(toks, stmts)
return stmts
parser = ZeroOrMore(fragment_stmt)
parser.setParseAction(fragment_stmt_parsed)
self.fragments = parser.parseFile(fragment_file, parseAll=True)
for fragment in self.fragments:
fragment.path = path
class Lindenmayer(object):
def __init__(self, stream):
# Set the default image dimensions ...
self.width = 500
self.height = 500
# ... and the number of iterations.
self.iterations = 5
# Set the default rotation angle in degrees.
self.alpha = 90
# Initialize the branch stack, ...
self.stack = []
# ... the constants, the rules, the variables and the axiom ...
self.const = {'+':'+', '-':'-', '[':'[', ']':']'}
self.rules = {}
self.vars = []
self.axiom = None
# ... and drawing settings.
self.bgcolor = (1.0, 1.0, 1.0)
self.lineLength = 20
self.lineWidth = 5
self.lineColor = (0, 0, 0)
# Calculate the starting position.
self.offset = (0, -self.height*0.5)
print 'Offset :', self.offset
# Finally store the stream ...
self.stream = stream
# ... and initialize the parser.
self.initialize()
def initialize(self):
ParserElement.setDefaultWhitespaceChars(' \t\r')
integer = Regex(r"[+-]?\d+") \
.setParseAction(lambda s,l,t: [ int(t[0]) ])
number = Regex(r"[+-]?(\d+(\.\d*)?|\.\d+)([eE][+-]?\d+)?") \
.setParseAction(lambda s,l,t: [ float(t[0]) ])
color = Regex(r"#([0-9a-fA-F]{6})")
angle = "'" + Regex(r"(360|3[0-5][0-9]|[12][0-9]{2}|[0-9]{1,2})") \
.setParseAction(lambda s,l,t: [ int(t[0]) ])
variable = Word(alphas, exact=1).setParseAction(self.addVar)
colon = Literal(":").suppress()
comma = Literal(",")
lBrace = Literal("(")
rBrace = Literal(")")
lBracket = Literal("[")
rBracket = Literal("]")
lAngle = Literal("<")
rAngle = Literal(">")
plus = Literal("+")
minus = Literal("-")
FTerm = Literal("F")
fTerm = Literal("f")
ZTerm = Literal("Z")
zTerm = Literal("z")
xTerm = Literal("x")
cTerm = Literal("c")
eol = OneOrMore(LineEnd()).suppress()
param = ( angle | color | "!" + number | "|" + number )
self.pList = lBrace + param + ZeroOrMore(comma + param) + rBrace
literal = ((lBracket + ( variable + Optional(self.pList)
| plus + Optional(self.pList) | minus + Optional(self.pList) ) + rBracket)
| (variable + Optional(self.pList) | plus + Optional(self.pList)
| minus + Optional(self.pList)))
terminal = (ZTerm | zTerm | FTerm | fTerm | xTerm | cTerm
| plus | minus | lBracket | rBracket)
lprod = (
(OneOrMore(terminal) + lAngle + variable + rAngle + OneOrMore(terminal))
| (OneOrMore(terminal) + lAngle + variable)
| (variable + rAngle + OneOrMore(terminal))
| variable )
rProd = OneOrMore(literal | terminal)
comment = Suppress((LineStart() + "#" + SkipTo(eol, include=True)))
rules = (
(lprod + Literal("=") + rProd + eol).setParseAction(self.addRule) \
| comment )
defaults = ( ( ("Dimensions" + colon + integer + comma + integer)
| ("Position" + colon + integer + comma + integer)
| ("Iterations" + colon + integer)
| ("Angle" + colon + angle)
| ("Linelength" + colon + number)
| ("Linewidth" + colon + number)
| ("Linecolor" + colon + color)
| ("Background" + colon + color)
| ("Axiom" + colon + rProd) ) + eol ).setParseAction(self.setAttribute)
header = ( defaults | comment )
self.grammar = Suppress(ZeroOrMore(LineEnd())) \
+ ZeroOrMore(header) \
+ OneOrMore(rules)
try:
L = self.grammar.parseString( self.stream )
except ParseException, err:
print err.line
print " "*(err.column-1) + "^"
print err
print 'Rules:', self.rules
def _select_hint(expr):
return Suppress(Literal("-- >")) + expr
def initialize(self):
ParserElement.setDefaultWhitespaceChars(' \t\r')
integer = Regex(r"[+-]?\d+") \
.setParseAction(lambda s,l,t: [ int(t[0]) ])
number = Regex(r"[+-]?(\d+(\.\d*)?|\.\d+)([eE][+-]?\d+)?") \
.setParseAction(lambda s,l,t: [ float(t[0]) ])
color = Regex(r"#([0-9a-fA-F]{6})")
angle = "'" + Regex(r"(360|3[0-5][0-9]|[12][0-9]{2}|[0-9]{1,2})") \
.setParseAction(lambda s,l,t: [ int(t[0]) ])
variable = Word(alphas, exact=1).setParseAction(self.addVar)
colon = Literal(":").suppress()
comma = Literal(",")
lBrace = Literal("(")
rBrace = Literal(")")
lBracket = Literal("[")
rBracket = Literal("]")
lAngle = Literal("<")
rAngle = Literal(">")
plus = Literal("+")
minus = Literal("-")
FTerm = Literal("F")
fTerm = Literal("f")
ZTerm = Literal("Z")
zTerm = Literal("z")
xTerm = Literal("x")
cTerm = Literal("c")
eol = OneOrMore(LineEnd()).suppress()
param = ( angle | color | "!" + number | "|" + number )
self.pList = lBrace + param + ZeroOrMore(comma + param) + rBrace
literal = ((lBracket + ( variable + Optional(self.pList)
| plus + Optional(self.pList) | minus + Optional(self.pList) ) + rBracket)
| (variable + Optional(self.pList) | plus + Optional(self.pList)
| minus + Optional(self.pList)))
terminal = (ZTerm | zTerm | FTerm | fTerm | xTerm | cTerm
| plus | minus | lBracket | rBracket)
lprod = (
(OneOrMore(terminal) + lAngle + variable + rAngle + OneOrMore(terminal))
| (OneOrMore(terminal) + lAngle + variable)
| (variable + rAngle + OneOrMore(terminal))
| variable )
rProd = OneOrMore(literal | terminal)
comment = Suppress((LineStart() + "#" + SkipTo(eol, include=True)))
rules = (
(lprod + Literal("=") + rProd + eol).setParseAction(self.addRule) \
| comment )
defaults = ( ( ("Dimensions" + colon + integer + comma + integer)
| ("Position" + colon + integer + comma + integer)
| ("Iterations" + colon + integer)
| ("Angle" + colon + angle)
| ("Linelength" + colon + number)
| ("Linewidth" + colon + number)
| ("Linecolor" + colon + color)
| ("Background" + colon + color)
| ("Axiom" + colon + rProd) ) + eol ).setParseAction(self.setAttribute)
header = ( defaults | comment )
self.grammar = Suppress(ZeroOrMore(LineEnd())) \
+ ZeroOrMore(header) \
+ OneOrMore(rules)
try:
L = self.grammar.parseString( self.stream )
except ParseException, err:
print err.line
print " "*(err.column-1) + "^"
print err
def _macros(expr):
return lineStart + Suppress(Literal("#")) + expr
class Atmega328():
def calc_addr(self, pc, offs, rng):
return pc + 2 * (offs if offs < (rng // 2) else offs - rng)
symtable = None
imm_4 = lambda d, s: "{K[0]:d}".format(**d)
bit = lambda d, s: "{s[0]:d}".format(**d)
reg = lambda d, s: "r{d[0]:d}".format(**d)
reg_imm = lambda d, s: "r{d[0]:d}, 0x{K[0]:x}".format(**d)
reg8_imm = lambda d, s: "r{:d}, 0x{:x}".format(d["d"][0] + 16, d["K"][0])
reg_imm16 = lambda d, s: "r{d[0]:d}, 0x{k[0]:x}".format(**d)
imm7_reg = lambda d, s: "0x{k[0]:x}, r{d[0]:d}".format(**d)
imm16_reg = lambda d, s: "0x{k[0]:x}, r{d[0]:d}".format(**d)
reg_bit = lambda d, s: "r{d[0]:d}, {b[0]:x}".format(**d)
bit_reg = lambda d, s: "{b[0]:x}, r{d[0]:d}".format(**d)
reg_reg = lambda d, s: "r{d[0]:d}, r{r[0]:d}".format(**d)
reg3_reg3 = lambda d, s: "r{:d}, r{:d}".format(d["d"][0] + 16, d["r"][0] +
16)
reg4_reg4 = lambda d, s: "r{:d}, r{:d}".format(d["d"][0] + 16, d["r"][0] +
16)
reg4 = lambda d, s: "r{:d}".format(d["d"][0] + 16)
reg_x = lambda d, s: "r{d[0]:d}, X".format(**d)
reg_x = lambda d, s: "r{d[0]:d}, X".format(**d)
reg_mx = lambda d, s: "r{d[0]:d}, -X".format(**d)
reg_xp = lambda d, s: "r{d[0]:d}, X+".format(**d)
reg_y = lambda d, s: "r{d[0]:d}, Y".format(**d)
reg_yp = lambda d, s: "r{d[0]:d}, Y+".format(**d)
reg_my = lambda d, s: "r{d[0]:d}, -Y".format(**d)
reg_yo = lambda d, s: "r{d[0]:d}, Y+{q[0]:d}".format(**d)
reg_z = lambda d, s: "r{d[0]:d}, Z".format(**d)
reg_zp = lambda d, s: "r{d[0]:d}, Z+".format(**d)
reg_mz = lambda d, s: "r{d[0]:d}, -Z".format(**d)
reg_zo = lambda d, s: "r{d[0]:d}, Z+{q[0]:d}".format(**d)
reg_io = lambda d, s: "r{d[0]:d}, 0x{A[0]:02x}".format(**d)
x_reg = lambda d, s: "X, r{r[0]:d}".format(**d)
xp_reg = lambda d, s: "X+, r{r[0]:d}".format(**d)
mx_reg = lambda d, s: "-X, r{r[0]:d}".format(**d)
y_reg = lambda d, s: "Y, r{r[0]:d}".format(**d)
yp_reg = lambda d, s: "Y+, r{r[0]:d}".format(**d)
my_reg = lambda d, s: "-Y, r{r[0]:d}".format(**d)
yo_reg = lambda d, s: "Y+{q[0]:d}, r{r[0]:d}".format(**d)
z_reg = lambda d, s: "Z, r{d[0]:d}".format(**d)
zp_reg = lambda d, s: "Z+, r{d[0]:d}".format(**d)
mz_reg = lambda d, s: "-Z, r{d[0]:d}".format(**d)
zo_reg = lambda d, s: "Z+{q[0]:d}, r{d[0]:d}".format(**d)
dreg_imm = lambda d, s: "r{:d}, 0x{:x}".format(d["d"][0] * 2 + 24, d["K"][
0])
dreg_dreg = lambda d, s: "r{:d}, r{:x}".format(d["d"][0] * 2, d["r"][0] * 2
)
rel_add = lambda d, s: "0x{:04x}".format(
s.calc_addr(d["pc"], d["k"][0], 128))
rel_add12 = lambda d, s: "0x{:04x}".format(
s.calc_addr(d["pc"], d["k"][0], 4096))
add17 = lambda d, s: "0x{k[0]:04x}".format(**d)
bit_rel = lambda d, s: "{s[0]:d}, 0x{k[0]:04x}".format(**d)
no_opd = lambda d, s: ""
io_bit = lambda d, s: "0x{A[0]:02x}, {b[0]:d}".format(**d)
io_reg = lambda d, s: "0x{A[0]:02x}, r{r[0]:d}".format(**d)
reg8_reg8 = lambda d, s: "r{:d}, r{:d}".format(d["d"][0] + 16, d["r"][0] +
16)
just_zp = lambda d, s: "Z+"
#ENUM
I = 7
T = 6
H = 5
S = 4
V = 3
N = 2
Z = 1
C = 0
#Tokens
def convert_hex_1(x):
x[1] = int(x[1], 16)
return x
def convert_hex_0(x):
x[0] = int(x[0], 16)
return x
def convert_reg24_30(x):
x[0] = (int(x[0]) - 24) / 2
return x
def convert_reg16_31(x):
x[0] = int(x[0]) - 16
return x
def convert_jmp_0(x):
x[0] = Atmega328.symtable[x[0]]
return x
etiqueta = Word(alphas, alphas + nums) + Suppress(":")
comentario = Optional(Suppress(";" + Word(alphanums)))
d0_31 = Suppress(Word(alphas) + "r") + Word(nums)
d0_31.addCondition(lambda t: int(t[0]) <= 31)
d0_31_r0_31 = Suppress(Word(alphas) +
"r") + Word(nums) + Suppress("," + ZeroOrMore(" ") +
"r") + Word(nums)
d0_31_r0_31.addCondition(lambda t: int(t[0]) <= 31 and int(t[1]) <= 31)
d24_30_k0_63 = Suppress(Word(alphas) + "r") + Word(nums) + Suppress(
"," + ZeroOrMore(" ") + "0x") + Word(hexnums)
d24_30_k0_63.addCondition(lambda t: int(t[0]) <= 30 and int(t[0]) >= 24 and
int(t[0]) % 2 == 0 and int(t[1], 16) <= 63)
d24_30_k0_63.addParseAction(convert_hex_1)
d24_30_k0_63.addParseAction(convert_reg24_30)
d16_31_k0_255 = Suppress(Word(alphas) + "r") + Word(nums) + Suppress(
"," + ZeroOrMore(" ") + "0x") + Word(hexnums)
d16_31_k0_255.addCondition(
lambda t: int(t[0]) <= 31 and int(t[0]) >= 16 and int(t[1], 16) <= 255)
d16_31_k0_255.addParseAction(convert_hex_1)
d16_31_k0_255.addParseAction(convert_reg16_31)
d0_31_b0_7 = Suppress(Word(alphas) + "r") + Word(nums) + Suppress(
"," + ZeroOrMore(" ")) + Word(hexnums)
d0_31_b0_7.addCondition(lambda t: int(t[0]) <= 31 and int(t[1]) <= 7)
jmp = Suppress(Word(alphas)) + (Word(nums) | Word(alphas))
jmp.setParseAction(convert_jmp_0)
#GRUPO N
def f_imm_4(self, opcstr, opd_dict):
pass
def f_bit(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg(self, opcstr, opd_dict):
d = opd_dict["d"][0]
#TST
if opcstr == "tst":
#calculo del resultado
res = self.ram[d] & self.ram[d]
#calculo de v
self.set_flag(self.V, 0)
#calculo de n
self.set_flag(self.N, self.get_bit(res, 7))
#calculo de s
self.set_flag(self.S,
self.get_flag(self.N) ^ self.get_flag(self.V))
#calculo de z
if res & 0xff == 0:
self.set_flag(self.Z, 1)
else:
self.set_flag(self.Z, 0)
#GRUPO N
def f_reg_imm(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg8_imm(self, opcstr, opd_dict):
d = opd_dict["d"][0] + 16
k = opd_dict["K"][0]
#ANDI
if opcstr == "andi":
#calculo del resultado
res = self.ram[d] & k
#calculo de v
self.set_flag(self.V, 0)
#calculo de n
self.set_flag(self.N, self.get_bit(res, 7))
#calculo de s
self.set_flag(self.S,
self.get_flag(self.N) ^ self.get_flag(self.V))
#calculo de z
if res & 0xff == 0:
self.set_flag(self.Z, 1)
else:
self.set_flag(self.Z, 0)
#guardado del resultado en el registro
self.ram[d] = res & 0xff
#CPI
elif opcstr == "cpi":
#calculo del resultado
res = self.ram[d] - k
#calculo de h
d3 = self.get_bit(self.ram[d], 3)
k3 = self.get_bit(k, 3)
res3 = self.get_bit(res, 3)
self.set_flag(self.H, (~d3) & k3 | k3 & res3 | res3 & (~d3))
#calculo de v
d7 = self.get_bit(self.ram[d], 7)
k7 = self.get_bit(k, 7)
res7 = self.get_bit(res, 7)
self.set_flag(self.V, d7 & (~k7) & (~res7) | (~d7) & k7 & res7)
#calculo de n
self.set_flag(self.N, self.get_bit(res, 7))
#calculo de s
self.set_flag(self.S,
self.get_flag(self.N) ^ self.get_flag(self.V))
#calculo de z
if res & 0xff == 0:
self.set_flag(self.Z, 1)
else:
self.set_flag(self.Z, 0)
#calculo de c
if k > self.ram[d]:
self.set_flag(self.C, 1)
else:
self.set_flag(self.C, 0)
#ORI
elif opcstr == "ori":
#calculo del resultado
res = self.ram[d] | k
#calculo de v
self.set_flag(self.V, 0)
#calculo de n
self.set_flag(self.N, self.get_bit(res, 7))
#calculo de s
self.set_flag(self.S,
self.get_flag(self.N) ^ self.get_flag(self.V))
#calculo de z
if res & 0xff == 0:
self.set_flag(self.Z, 1)
else:
self.set_flag(self.Z, 0)
#guardado del resultado en el registro
self.ram[d] = res & 0xff
#SBCI
elif opcstr == "sbci":
#calculo del resultado
res = self.ram[d] - k - self.get_flag(7)
#calculo de h
d3 = self.get_bit(self.ram[d], 3)
k3 = self.get_bit(k, 3)
res3 = self.get_bit(res, 3)
self.set_flag(self.H, (~d3) & k3 | k3 & res3 | res3 & (~d3))
#calculo de v
d7 = self.get_bit(self.ram[d], 7)
k7 = self.get_bit(k, 7)
res7 = self.get_bit(res, 7)
self.set_flag(self.V, d7 & (~k7) & (~res7) | (~d7) & k7 & res7)
#calculo de n
self.set_flag(self.N, self.get_bit(res, 7))
#calculo de s
self.set_flag(self.S,
self.get_flag(self.N) ^ self.get_flag(self.V))
#calculo de z
if res & 0xff != 0:
self.set_flag(self.Z, 0)
#calculo de c
d7 = self.get_bit(self.ram[d], 7)
k7 = self.get_bit(k, 7)
res7 = self.get_bit(res, 7)
self.set_flag(self.C, (~d7) & k7 | k7 & res7 | res7 & (~d7))
#guardado del resultado en el registro
self.ram[d] = res & 0xff
#GRUPO N
def f_reg_imm16(self, opcstr, opd_dict):
pass
#GRUPO N
def f_imm7_reg(self, opcstr, opd_dict):
pass
#GRUPO N
def f_imm16_reg(self, opcstr, opd_dict):
pass
#GRUPO 4
def f_reg_bit(self, opcstr, opd_dict):
pass
#GRUPO N
def f_bit_reg(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg_reg(self, opcstr, opd_dict):
d = opd_dict["d"][0]
r = opd_dict["r"][0]
#ADC
if opcstr == "adc":
#calculo del resultado
res = self.ram[r] + self.ram[d] + self.get_flag(self.C)
#calculo de h
d3 = self.get_bit(self.ram[d], 3)
r3 = self.get_bit(self.ram[r], 3)
res3 = self.get_bit(res, 3)
self.set_flag(self.H, d3 & r3 | r3 & (~res3) | (~res3) & d3)
#calculo de v
d7 = self.get_bit(self.ram[d], 7)
r7 = self.get_bit(self.ram[r], 7)
res7 = self.get_bit(res, 7)
self.set_flag(self.V, d7 & r7 & (~res7) | (~d7) & (~r7) & res7)
#calculo de n
self.set_flag(self.N, self.get_bit(res, 7))
#calculo de s
self.set_flag(self.S,
self.get_flag(self.N) ^ self.get_flag(self.V))
#calculo de z
if res & 0xff == 0:
self.set_flag(self.Z, 1)
else:
self.set_flag(self.Z, 0)
print(self.flags)
#calculo de c
crr = self.get_bit(res, 8)
self.set_flag(self.C, crr)
#guardado del resultado en el registro
self.ram[d] = res & 0xff
#ADD
elif opcstr == "add":
#calculo del resultado
res = self.ram[r] + self.ram[d]
#calculo de h
d3 = self.get_bit(self.ram[d], 3)
r3 = self.get_bit(self.ram[r], 3)
res3 = self.get_bit(res, 3)
self.set_flag(self.H, d3 & r3 | r3 & (~res3) | (~res3) & d3)
#calculo de v
d7 = self.get_bit(self.ram[d], 7)
r7 = self.get_bit(self.ram[r], 7)
res7 = self.get_bit(res, 7)
self.set_flag(self.V, d7 & r7 & (~res7) | (~d7) & (~r7) & res7)
#calculo de n
self.set_flag(self.N, self.get_bit(res, 7))
#calculo de s
self.set_flag(self.S,
self.get_flag(self.N) ^ self.get_flag(self.V))
#calculo de z
if res & 0xff == 0:
self.set_flag(self.Z, 1)
else:
self.set_flag(self.Z, 0)
#calculo de c
c = self.get_bit(res, 8)
self.set_flag(self.C, c)
#guardado del resultado en el registro
self.ram[d] = res & 0xff
#AND
elif opcstr == "and":
#calculo del resultado
res = self.ram[d] & self.ram[r]
#calculo de v
self.set_flag(self.V, 0)
#calculo de n
self.set_flag(self.N, self.get_bit(res, 7))
#calculo de s
self.set_flag(self.S,
self.get_flag(self.N) ^ self.get_flag(self.V))
#calculo de z
if res & 0xff == 0:
self.set_flag(self.Z, 1)
else:
self.set_flag(self.Z, 0)
#guardado del resultado en el registro
self.ram[d] = res & 0xff
#CP
elif opcstr == "cp":
#calculo del resultado
res = self.ram[d] - self.ram[r]
#calculo de h
d3 = self.get_bit(self.ram[d], 3)
r3 = self.get_bit(self.ram[r], 3)
res3 = self.get_bit(res, 3)
self.set_flag(self.H, (~d3) & r3 | r3 & res3 | res3 & (~d3))
#calculo de v
d7 = self.get_bit(self.ram[d], 7)
r7 = self.get_bit(self.ram[r], 7)
res7 = self.get_bit(res, 7)
self.set_flag(self.V, d7 & (~r7) & (~res7) | (~d7) & r7 & res7)
#calculo de n
self.set_flag(self.N, self.get_bit(res, 7))
#calculo de s
self.set_flag(self.S,
self.get_flag(self.N) ^ self.get_flag(self.V))
#calculo de z
if res & 0xff == 0:
self.set_flag(self.Z, 1)
else:
self.set_flag(self.Z, 0)
#calculo de c
d7 = self.get_bit(self.ram[d], 7)
r7 = self.get_bit(self.ram[r], 7)
res7 = self.get_bit(res, 7)
self.set_flag(self.C, (~d7) & r7 | r7 & res7 | res7 & (~d7))
#CPC
elif opcstr == "cpc":
#calculo del resultado
res = self.ram[d] - self.ram[r] - self.get_flag(7)
#calculo de h
d3 = self.get_bit(self.ram[d], 3)
r3 = self.get_bit(self.ram[r], 3)
res3 = self.get_bit(res, 3)
self.set_flag(self.H, (~d3) & r3 | r3 & res3 | res3 & (~d3))
#calculo de v
d7 = self.get_bit(self.ram[d], 7)
r7 = self.get_bit(self.ram[r], 7)
res7 = self.get_bit(res, 7)
self.set_flag(self.V, d7 & (~r7) & (~res7) | (~d7) & r7 & res7)
#calculo de n
self.set_flag(self.N, self.get_bit(res, 7))
#calculo de s
self.set_flag(self.S,
self.get_flag(self.N) ^ self.get_flag(self.V))
#calculo de z
if res & 0xff == 0:
self.set_flag(self.Z, 1)
else:
self.set_flag(self.Z, 0)
#calculo de c
d7 = self.get_bit(self.ram[d], 7)
r7 = self.get_bit(self.ram[r], 7)
res7 = self.get_bit(res, 7)
self.set_flag(self.C, (~d7) & r7 | r7 & res7 | res7 & (~d7))
#CPSE
elif opcstr == "cpse":
#calculo del resultado
if self.ram[d] == self.ram[r]:
opc = self.flash.get_word(self.pc)
entry = self.find_opcode(opc)
if entry.opcstr[0] == "!":
self.pc += 4 #Saltar una instruccion
else:
self.pc += 2
#EOR
elif opcstr == "eor":
#calculo del resultado
res = self.ram[r] ^ self.ram[d]
#calculo de v
self.set_flag(self.V, 0)
#calculo de n
self.set_flag(self.N, self.get_bit(res, 7))
#calculo de s
self.set_flag(self.S,
self.get_flag(self.N) ^ self.get_flag(self.V))
#calculo de z
if res & 0xff == 0:
self.set_flag(self.Z, 1)
else:
self.set_flag(self.Z, 0)
#guardado del resultado en el registro
self.ram[d] = res & 0xff
#MOV
elif opcstr == "mov":
#calculo del resultado
self.ram[d] = self.ram[r]
#OR
elif opcstr == "or":
#calculo del resultado
res = self.ram[r] | self.ram[d]
#calculo de v
self.set_flag(self.V, 0)
#calculo de n
self.set_flag(self.N, self.get_bit(res, 7))
#calculo de s
self.set_flag(self.S,
self.get_flag(self.N) ^ self.get_flag(self.V))
#calculo de z
if res & 0xff == 0:
self.set_flag(self.Z, 1)
else:
self.set_flag(self.Z, 0)
#guardado del resultado en el registro
self.ram[d] = res & 0xff
#SBC
elif opcstr == "sbc":
#calculo del resultado
res = self.ram[d] - self.ram[r] - self.get_flag(7)
#calculo de h
d3 = self.get_bit(self.ram[d], 3)
r3 = self.get_bit(self.ram[r], 3)
res3 = self.get_bit(res, 3)
self.set_flag(self.H, (~d3) & r3 | r3 & res3 | res3 & (~d3))
#calculo de v
d7 = self.get_bit(self.ram[d], 7)
r7 = self.get_bit(self.ram[r], 7)
res7 = self.get_bit(res, 7)
self.set_flag(self.V, d7 & (~r7) & (~res7) | (~d7) & r7 & res7)
#calculo de n
self.set_flag(self.N, self.get_bit(res, 7))
#calculo de s
self.set_flag(self.S,
self.get_flag(self.N) ^ self.get_flag(self.V))
#calculo de z
if res & 0xff != 0:
self.set_flag(self.Z, 0)
#calculo de c
d7 = self.get_bit(self.ram[d], 7)
r7 = self.get_bit(self.ram[r], 7)
res7 = self.get_bit(res, 7)
self.set_flag(self.C, (~d7) & r7 | r7 & res7 | res7 & (~d7))
#guardado del resultado en el registro
self.ram[d] = res & 0xff
#SUB
elif opcstr == "sub":
#calculo del resultado
res = self.ram[d] - self.ram[r]
#calculo de h
d3 = self.get_bit(self.ram[d], 3)
r3 = self.get_bit(self.ram[r], 3)
res3 = self.get_bit(res, 3)
self.set_flag(self.H, (~d3) & r3 | r3 & res3 | res3 & (~d3))
#calculo de v
d7 = self.get_bit(self.ram[d], 7)
r7 = self.get_bit(self.ram[r], 7)
res7 = self.get_bit(res, 7)
self.set_flag(self.V, d7 & (~r7) & (~res7) | (~d7) & r7 & res7)
#calculo de n
self.set_flag(self.N, self.get_bit(res, 7))
#calculo de s
self.set_flag(self.S,
self.get_flag(self.N) ^ self.get_flag(self.V))
#calculo de z
if res & 0xff == 0:
self.set_flag(self.Z, 1)
else:
self.set_flag(self.Z, 0)
#calculo de c
d7 = self.get_bit(self.ram[d], 7)
r7 = self.get_bit(self.ram[r], 7)
res7 = self.get_bit(res, 7)
self.set_flag(self.C, (~d7) & r7 | r7 & res7 | res7 & (~d7))
#guardado del resultado en el registro
self.ram[d] = res & 0xff
#GRUPO N
def f_reg3_reg3(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg4_reg4(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg4(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg_x(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg_mx(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg_xp(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg_y(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg_yp(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg_my(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg_yo(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg_z(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg_zp(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg_mz(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg_zo(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg_io(self, opcstr, opd_dict):
pass
#GRUPO N
def f_x_reg(self, opcstr, opd_dict):
pass
#GRUPO N
def f_xp_reg(self, opcstr, opd_dict):
pass
#GRUPO N
def f_mx_reg(self, opcstr, opd_dict):
pass
#GRUPO N
def f_y_reg(self, opcstr, opd_dict):
pass
#GRUPO N
def f_yp_reg(self, opcstr, opd_dict):
pass
#GRUPO N
def f_my_reg(self, opcstr, opd_dict):
pass
#GRUPO N
def f_yo_reg(self, opcstr, opd_dict):
pass
#GRUPO N
def f_z_reg(self, opcstr, opd_dict):
pass
#GRUPO N
def f_zp_reg(self, opcstr, opd_dict):
pass
#GRUPO N
def f_mz_reg(self, opcstr, opd_dict):
pass
#GRUPO N
def f_zo_reg(self, opcstr, opd_dict):
pass
#GRUPO N
def f_dreg_imm(self, opcstr, opd_dict):
d = opd_dict["d"][0] * 2 + 24
k = opd_dict["K"][0]
#ADIW
if opcstr == "adiw":
#calculo del resultado
res = self.ram[d] + k
res1 = self.ram[d + 1] + k
#calculo de v
dh7 = self.get_bit(self.ram[d + 1], 7)
r15 = self.get_bit(res1, 7)
self.set_flag(self.V, ~dh7 & r15)
#calculo de n
self.set_flag(self.N, r15)
#calculo de s
self.set_flag(self.S,
self.get_flag(self.N) ^ self.get_flag(self.V))
#calculo de z
if res & 0xff == 0 and res1 & 0xff == 0:
self.set_flag(self.Z, 1)
else:
self.set_flag(self.Z, 0)
#calculo de c
self.set_flag(self.C, ~r15 & dh7)
#guardado del resultado
self.ram[d] = res & 0xff
self.ram[d + 1] = res1 & 0xff
#GRUPO N
def f_dreg_dreg(self, opcstr, opd_dict):
d = opd_dict["d"][0] * 2
r = opd_dict["r"][0] * 2
#MOVW
if opcstr == "movw":
#calculo del resultado
self.ram[d] = self.ram[r]
self.ram[d + 1] = self.ram[r + 1]
#GRUPO N
def f_rel_add(self, opcstr, opd_dict):
pass
#GRUPO N
def f_rel_add12(self, opcstr, opd_dict):
pass
#GRUPO N
def f_add17(self, opcstr, opd_dict):
pass
#GRUPO N
def f_bit_rel(self, opcstr, opd_dict):
pass
#GRUPO N
def f_no_opd(self, opcstr, opd_dict):
pass
#GRUPO N
def f_io_bit(self, opcstr, opd_dict):
pass
#GRUPO N
def f_io_reg(self, opcstr, opd_dict):
pass
#GRUPO N
def f_reg8_reg8(self, opcstr, opd_dict):
pass
#GRUPO N
def f_just_zp(self, opcstr, opd_dict):
pass
#Grupos:
# 1: Gomez-Pereyra
# 2: Garijo-Perez
# 3: Gueler-
# 4:
opcodes = (
#A
OPC(0xfc00, 0x1c00, "adc", "r4d5r1", reg_reg, f_reg_reg, "b4a5b1",
d0_31_r0_31), # 1
OPC(0xfc00, 0x0c00, "add", "r4d5r1", reg_reg, f_reg_reg, "b4a5b1",
d0_31_r0_31), # 1
OPC(0xff00, 0x9600, "adiw", "K4d2K2", dreg_imm, f_dreg_imm, "b4a2b2",
d24_30_k0_63), # 1
OPC(0xfc00, 0x2000, "and", "r4d5r1", reg_reg, f_reg_reg, "b4a5b1",
d0_31_r0_31), # 1
OPC(0xf000, 0x7000, "andi", "K4d4K4", reg8_imm, f_reg8_imm, "b4a4b4",
d16_31_k0_255), # 1
OPC(0xfe0f, 0x9405, "asr", "-4d5", reg, f_reg, "-4a5", d0_31), # 3
#B @12
#OPC(0xff8f, 0x9488, "bclr", "-4s3", bit, f_bit),
OPC(0xfe08, 0xf800, "bld", "b3-1d5", reg_bit, f_reg_bit, "b3-1a5",
d0_31_b0_7), # 4
#OPC(0xfc00, 0xf400, "brbc", "s3k7", bit_rel, f_bit_rel),
#OPC(0xfc00, 0xf000, "brbs", "s3k7", bit_rel, f_bit_rel),
OPC(0xfc07, 0xf400, "brcc", "-3k7", rel_add, f_rel_add, "-3a7",
jmp), # 4
OPC(0xfc07, 0xf000, "brcs", "-3k7", rel_add, f_rel_add, "-3a7",
jmp), # 4
OPC(0xffff, 0x9598, "break", "", no_opd, f_no_opd, "", None), # 2
OPC(0xfc07, 0xf001, "breq", "-3k7", rel_add, f_rel_add, "-3k7",
jmp), # 4
OPC(0xfc07, 0xf404, "brge", "-3k7", rel_add, f_rel_add, "", None), # 4
OPC(0xfc07, 0xf405, "brhc", "-3k7", rel_add, f_rel_add, "", None), # 4
OPC(0xfc07, 0xf005, "brhs", "-3k7", rel_add, f_rel_add, "", None), # 4
OPC(0xfc07, 0xf407, "brid", "-3k7", rel_add, f_rel_add, "", None), # 4
OPC(0xfc07, 0xf007, "brie", "-3k7", rel_add, f_rel_add, "", None), # 4
OPC(0xfc07, 0xf000, "brlo", "-3k7", rel_add, f_rel_add, "", None), # 4
OPC(0xfc07, 0xf004, "brlt", "-3k7", rel_add, f_rel_add, "", None), # 4
OPC(0xfc07, 0xf002, "brmi", "-3k7", rel_add, f_rel_add, "", None), # 4
OPC(0xfc07, 0xf401, "brne", "-3k7", rel_add, f_rel_add, "", None), # 4
OPC(0xfc07, 0xf402, "brpl", "-3k7", rel_add, f_rel_add, "", None), # 4
OPC(0xfc07, 0xf400, "brsh", "-3k7", rel_add, f_rel_add, "", None), # 4
OPC(0xfc07, 0xf406, "brtc", "-3k7", rel_add, f_rel_add, "", None), # 4
OPC(0xfc07, 0xf006, "brts", "-3k7", rel_add, f_rel_add, "", None), # 4
OPC(0xfc07, 0xf403, "brvc", "-3k7", rel_add, f_rel_add, "", None), # 4
OPC(0xfc07, 0xf003, "brvs", "-3k7", rel_add, f_rel_add, "", None), # 4
#OPC(0xff8f, 0x9408, "bset", "-4s3", bit, f_bit),
OPC(0xfe08, 0xfa00, "bst", "b3-1d5", reg_bit, f_reg_bit, "",
None), # 4
#C
OPC(0xfe0e, 0x940e, "call", "!k17-3k5", add17, f_add17, "", None), # 2
OPC(0xff00, 0x9800, "cbi", "b3A5", io_bit, f_io_bit, "", None), # 4
OPC(0xffff, 0x9488, "clc", "", no_opd, f_no_opd, "", None), # 4
OPC(0xffff, 0x94d8, "clh", "", no_opd, f_no_opd, "", None), # 4
OPC(0xffff, 0x94f8, "cli", "", no_opd, f_no_opd, "", None), # 4
OPC(0xffff, 0x94a8, "cln", "", no_opd, f_no_opd, "", None), # 4
OPC(0xfc00, 0x2400, "clr", "r4d5r1", reg, f_reg, "", None), # 2
OPC(0xffff, 0x94c8, "cls", "", no_opd, f_no_opd, "", None), # 4
OPC(0xffff, 0x94e8, "clt", "", no_opd, f_no_opd, "", None), # 4
OPC(0xffff, 0x94b8, "clv", "", no_opd, f_no_opd, "", None), # 4
OPC(0xffff, 0x9498, "clz", "", no_opd, f_no_opd, "", None), # 4
OPC(0xfe0f, 0x9400, "com", "-4d5", reg, f_reg, "", None),
OPC(0xfe00, 0x1400, "cp", "r4d5r1", reg_reg, f_reg_reg, "", None), # 1
OPC(0xfc00, 0x0400, "cpc", "r4d5r1", reg_reg, f_reg_reg, "",
None), # 1
OPC(0xf000, 0x3000, "cpi", "K4d4K4", reg8_imm, f_reg8_imm, "",
None), # 1
OPC(0xfc00, 0x1000, "cpse", "r4d5r1", reg_reg, f_reg_reg, "",
None), # 1
#D
OPC(0xfe0f, 0x940a, "dec", "-4d5", reg, f_reg, "", None), # 3
OPC(0xff0f, 0x940b, "des", "-4K4", imm_4, f_imm_4, "", None), # 3
#E
OPC(0xffff, 0x9519, "eicall", "", no_opd, f_no_opd, "", None), # 2
OPC(0xffff, 0x9419, "eijmp", "", no_opd, f_no_opd, "", None), # 2
OPC(0xffff, 0x95d8, "elpm", "", no_opd, f_no_opd, "", None), # 2
OPC(0xfe0f, 0x9006, "elpm", "-4d5", reg_z, f_reg_z, "", None), # 2
OPC(0xfe0f, 0x9007, "elpm", "-4d5", reg_zp, f_reg_zp, "", None), # 2
OPC(0xfc00, 0x2400, "eor", "r4d5r1", reg_reg, f_reg_reg, "",
None), # 1
#F
OPC(0xff88, 0x0308, "fmul", "r3-1d3", reg8_reg8, f_reg8_reg8, "",
None), # 3
OPC(0xff88, 0x0380, "fmuls", "r3-1d3", reg8_reg8, f_reg8_reg8, "",
None), # 3
OPC(0xff88, 0x0388, "fmulsu", "r3-1d3", reg8_reg8, f_reg8_reg8, "",
None), # 3
#G - No hay
#H - No hay
#I
OPC(0xffff, 0x9509, "icall", "", no_opd, f_no_opd, "", None), # 2
OPC(0xffff, 0x9409, "ijmp", "", no_opd, f_no_opd, "", None), # 2
OPC(0xf800, 0xb000, "in", "A4d5A2", reg_io, f_reg_io, "", None), # 3
OPC(0xfe0f, 0x9403, "inc", "-4d5", reg, f_reg, "", None), # 3
#J
OPC(0xfe0e, 0x940c, "jmp", "!k17-3k5", add17, f_add17, "", None), # 2
#K - No hay
#L
OPC(0xfe0f, 0x9206, "lac", "-4r5", z_reg, f_z_reg, "", None),
OPC(0xfe0f, 0x9205, "las", "-4r5", z_reg, f_z_reg, "", None),
OPC(0xfe0f, 0x9207, "lat", "-4r5", z_reg, f_z_reg, "", None),
OPC(0xfe0f, 0x900c, "ld", "-4d5", reg_x, f_reg_x, "", None),
OPC(0xfe0f, 0x900d, "ld", "-4d5", reg_xp, f_reg_xp, "", None),
OPC(0xfe0f, 0x900e, "ld", "-4d5", reg_mx, f_reg_mx, "", None),
OPC(0xfe0f, 0x900c, "ld", "-4d5", reg_x, f_reg_x, "", None),
OPC(0xfe0f, 0x900d, "ld", "-4d5", reg_xp, f_reg_xp, "", None),
OPC(0xfe0f, 0x900e, "ld", "-4d5", reg_mx, f_reg_mx, "", None),
OPC(0xfe0f, 0x8008, "ld", "-4d5", reg_y, f_reg_y, "", None),
OPC(0xfe0f, 0x9009, "ld", "-4d5", reg_yp, f_reg_yp, "", None),
OPC(0xfe0f, 0x900a, "ld", "-4d5", reg_my, f_reg_my, "", None),
OPC(0xd208, 0x8008, "ldd", "q3-1d5-1q2-1q1", reg_yo, f_reg_yo, "",
None),
OPC(0xfe0f, 0x8000, "ld", "-4d5", reg_z, f_reg_z, "", None),
OPC(0xfe0f, 0x9001, "ld", "-4d5", reg_zp, f_reg_zp, "", None),
OPC(0xfe0f, 0x9002, "ld", "-4d5", reg_mz, f_reg_mz, "", None),
OPC(0xd208, 0x8000, "ldd", "q3-1d5-1q2-1q1", reg_zo, f_reg_zo, "",
None),
OPC(0xf000, 0xe000, "ldi", "K4d4K4", reg8_imm, f_reg8_imm, "", None),
OPC(0xfe0f, 0x9000, "lds", "!k16-4d5", reg_imm16, f_reg_imm16, "",
None),
OPC(0xffff, 0x95c8, "lpm", "", no_opd, f_no_opd, "", None),
OPC(0xfe0f, 0x9004, "lpm", "-4d5", reg_z, f_reg_z, "", None),
OPC(0xfe0f, 0x9005, "lpm", "-4d5", reg_zp, f_reg_zp, "", None),
OPC(0xfc00, 0x0c00, "lsl", "r4d5r1", reg, f_reg, "", None), # 3
OPC(0xfe0f, 0x9406, "lsr", "-4d5", reg, f_reg, "", None), # 3
#M
OPC(0xfc00, 0x2c00, "mov", "r4d5r1", reg_reg, f_reg_reg, "",
None), # 1
OPC(0xff00, 0x0100, "movw", "r4d4", dreg_dreg, f_dreg_dreg, "",
None), # 1
OPC(0xfc00, 0x9c00, "mul", "r4d5r1", reg_reg, f_reg_reg, "",
None), # 3
OPC(0xff00, 0x0200, "muls", "r4d4", reg4_reg4, f_reg4_reg4, "",
None), # 3
OPC(0xff88, 0x0300, "mulsu", "r3-1d3", reg3_reg3, f_reg3_reg3, "",
None), # 3
#N
OPC(0xfe0f, 0x9401, "neg", "-4d5", reg, f_reg, "", None), # 3
OPC(0xffff, 0x0000, "nop", "", no_opd, f_no_opd, "", None), # 2
#O
OPC(0xfc00, 0x2800, "or", "r4d5r1", reg_reg, f_reg_reg, "", None), # 1
OPC(0xf000, 0x6000, "ori", "K4d4K4", reg8_imm, f_reg8_imm, "",
None), # 1
OPC(0xf800, 0xb800, "out", "A4r5A2", io_reg, f_io_reg, "", None), # 3
#P
OPC(0xfe0f, 0x900f, "pop", "-4d5", reg, f_reg, "", None), # 2
OPC(0xfe0f, 0x920f, "push", "-4d5", reg, f_reg, "", None), # 2
#Q - No hay
#R
OPC(0xf000, 0xd000, "rcall", "k12", rel_add12, f_rel_add12, "",
None), # 2
OPC(0xffff, 0x9508, "ret", "", no_opd, f_no_opd, "", None), # 2
OPC(0xffff, 0x9518, "reti", "", no_opd, f_no_opd, "", None), # 2
OPC(0xf000, 0xc000, "rjmp", "k12", rel_add12, f_rel_add12, "",
None), # 2
OPC(0xfc00, 0x1c00, "rol", "r4d5r1", reg, f_reg, "", None), # 3
OPC(0xfe0f, 0x9407, "ror", "-4d5", reg, f_reg, "", None), # 3
#S - en proceso
OPC(0xfc00, 0x0800, "sbc", "r4d5r1", reg_reg, f_reg_reg, "",
None), # 1
OPC(0xf000, 0x4000, "sbci", "K4d4K4", reg8_imm, f_reg8_imm, "",
None), # 1
OPC(0xff00, 0x9a00, "sbi", "b3A5", io_bit, f_io_bit, "", None), # 4
OPC(0xff00, 0x9900, "sbic", "b3A5", io_bit, f_io_bit, "", None), # 4
OPC(0xff00, 0x9b00, "sbis", "b3A5", io_bit, f_io_bit, "", None), # 4
OPC(0xff00, 0x9700, "sbiw", "K4d2K2", dreg_imm, f_dreg_imm, "",
None), # 4
OPC(0xf000, 0x6000, "sbr", "K4d4K4", reg_imm, f_reg_imm, "",
None), # 4
OPC(0xfe00, 0xfc00, "sbrc", "b3-1d5", reg_bit, f_reg_bit, "",
None), # 4
OPC(0xfe08, 0xfe00, "sbrs", "b3-1d5", reg_bit, f_reg_bit, "",
None), # 4
OPC(0xffff, 0x9408, "sec", "", no_opd, f_no_opd, "", None), # 4
OPC(0xffff, 0x9458, "seh", "", no_opd, f_no_opd, "", None), # 4
OPC(0xffff, 0x9478, "sei", "", no_opd, f_no_opd, "", None), # 4
OPC(0xffff, 0x9428, "sen", "", no_opd, f_no_opd, "", None), # 4
OPC(0xff0f, 0xef0f, "ser", "-4d4", reg4, f_reg4, "", None),
OPC(0xffff, 0x9448, "ses", "", no_opd, f_no_opd, "", None), # 4
OPC(0xffff, 0x9468, "set", "", no_opd, f_no_opd, "", None), # 4
OPC(0xffff, 0x9438, "sev", "", no_opd, f_no_opd, "", None), # 4
OPC(0xffff, 0x9418, "sez", "", no_opd, f_no_opd, "", None), # 4
OPC(0xffff, 0x9588, "sleep", "", no_opd, f_no_opd, "", None), # 2
OPC(0xffff, 0x95e8, "spm", "", no_opd, f_no_opd, "", None),
OPC(0xffff, 0x95f8, "spm", "", just_zp, f_just_zp, "", None),
OPC(0xfe0f, 0x920c, "st", "-4r5", x_reg, f_x_reg, "", None),
OPC(0xfe0f, 0x920d, "st", "-4r5", xp_reg, f_xp_reg, "", None),
OPC(0xfe0f, 0x920e, "st", "-4r5", mx_reg, f_mx_reg, "", None),
OPC(0xfe0f, 0x8208, "st", "-4r5", y_reg, f_y_reg, "", None),
OPC(0xfe0f, 0x9209, "st", "-4r5", yp_reg, f_yp_reg, "", None),
OPC(0xfe0f, 0x920a, "st", "-4r5", my_reg, f_my_reg, "", None),
OPC(0xd208, 0x8208, "std", "q3-1r5-1q2-1q1", yo_reg, f_yo_reg, "",
None),
OPC(0xfe0f, 0x8200, "st", "-4d5", z_reg, f_z_reg, "", None),
OPC(0xfe0f, 0x9201, "st", "-4d5", zp_reg, f_zp_reg, "", None),
OPC(0xfe0f, 0x9202, "st", "-4d5", mz_reg, f_mz_reg, "", None),
OPC(0xd208, 0x8200, "std", "q3-1d5-1q2-1q1", zo_reg, f_zo_reg, "",
None),
OPC(0xfe0f, 0x9200, "sts", "!k16-4d5", imm16_reg, f_imm16_reg, "",
None),
OPC(0xf800, 0xa800, "sts", "k4d4k3", imm7_reg, f_imm7_reg, "", None),
OPC(0xfc00, 0x1800, "sub", "r4d5r1", reg_reg, f_reg_reg, "",
None), # 1
OPC(0xf000, 0x5000, "subi", "K4d4K4", reg8_imm, f_reg8_imm, "",
None), # 3
OPC(0xfe0f, 0x9402, "swap", "-4d5", reg, f_reg, "", None), # 2
#T
OPC(0xfc00, 0x2000, "tst", "r4d5r1", reg, f_reg, "", None), # 1
#U - No hay
#V - No hay
#W
OPC(0xffff, 0x95a8, "wdr", "", no_opd, f_no_opd, "", None), # 2
#X
#~ OPC(0xfe0f, 0x9204, "xch", "-4d5", reg, f_reg) # Not for atmega328
# Y - No hay
# Z - No hay
)
def __init__(self, symtable):
self.flash = Memory(32768, Memory.FLASH)
#self.symtable = symtable
self.pc = 0
self.sp = 0x7fff
self.ram = [0] * 32
self.flags = 0
def get_bit(self, reg, bit):
return (reg >> bit) & 0x01
def set_bit(self, reg, bit, value):
if value == 1:
reg = reg | (1 << bit)
else:
reg = reg & (~(1 << bit))
return reg
def get_flag(self, flag):
return self.get_bit(self.flags, flag)
def set_flag(self, flag, value):
self.flags = self.set_bit(self.flags, flag, value)
def reset(self):
self.pc = 0
self.sp = 0x7fff
self.flags = 0
def load_flash(self, fname):
self.flash.load_intel_hex(fname)
def find_opcode(self, opc):
for entry in self.opcodes:
if (opc & entry.mask) == entry.remainder:
break
else:
print("Instruccion no decodificada: {:04x}".format(opc))
return None
return entry
def find_instruction(self, instruction):
for entry in self.opcodes:
if instruction == entry.opcstr:
break
else:
print("Instruccion no encontrada:" + instruction)
return None
return entry
def decode_operands(self, entry, pc, opc):
opd_dict = {"pc": pc} # para calcular direcciones relativas
cmd = entry.opdcmd
if (cmd != "") and (cmd[0] == '!'): # Instruccion de 32 bits?
opc = (opc << 16) | self.flash.get_word(pc)
cmd = cmd[1:]
pc += 2
# Ej.: r4d5r1 (para ADC)
# decodificar 0x1da5
while cmd != "": # paso 1 paso 2 paso 3
r = re.match("([a-zA-Z-])(\d+)", cmd) # r, 4 d, 5 r, 1
if r == None:
print("error en expresion en la table")
field_name = r.group(1) # r d r
field_len = int(r.group(2)) # 4 5 1
if field_name not in opd_dict:
opd_dict[field_name] = [0, 0]
step = opd_dict[field_name]
temp = opc & (1 << field_len) - 1 # 5 26 0
opc >>= field_len # 0x01da 0x000e 0x0007
step[0] |= temp << step[1] # [r]=5 [d]=26 [r]=5
step[1] += field_len # 4 5 5
cmd = cmd[len(r.group(0)):] # r4d5r1 d5r1 r1
# ->d5r1 -> r1 -> ""
return opd_dict
def disassemble_one_instruction(self, pc, symtable=None):
opc = self.flash.get_word(pc)
pc += 2
if opc == None:
return None
entry = self.find_opcode(opc)
if entry == None:
return None
opd_dict = self.decode_operands(entry, pc, opc)
s = "{:8s}{:8s}".format("", entry.opcstr)
if entry.fmt in [
Atmega328.add17, Atmega328.rel_add, Atmega328.rel_add12
]:
sym = int(entry.fmt(opd_dict, self), 0)
self.symtable.add(self.symtable.create_label(sym), sym)
s += "{:s}".format(self.symtable.create_label(sym))
else:
s += entry.fmt(opd_dict, self)
return (s, pc)
#funcion para ensamblar una instruccion
def assemble_one_instruction(self, line, mem_pos):
instruction = 0
try:
l = (self.etiqueta + self.comentario).parseString(line)
self.symtable[l[0]] = mem_pos
return None
except Exception as e:
#print(e)
pass
opc = re.match("([a-zA-Z]+)", line)
entry = self.find_instruction(opc.group(1))
instruction = entry.remainder
try:
opd_list = (entry.token + self.comentario).parseString(
line, parseAll=True)
if entry.token == Atmega328.jmp:
opd_list[0] = opd_list[0] - mem_pos + (
128 if opd_list[0] < mem_pos else 0)
print(opd_list)
except Exception as e:
print("Instruccion no valida")
print(e)
return None
cmd = entry.code_opd
#Parametro para la asignacion de los bits
itr = 0
while cmd != "":
r = re.match("([a-b-])(\d+)", cmd)
if r.group(1) == "-":
itr += int(r.group(2))
cmd = cmd[2:]
continue
#que valor es el correcto
opd = 0 if r.group(1) == "a" else 1
#cantidad de bits a desplazar
itr_aux = int(r.group(2))
for bit in range(itr_aux):
value = int(opd_list[opd]) & 0x01
opd_list[opd] = int(opd_list[opd]) >> 1
instruction = self.set_bit(instruction, itr + bit, value)
itr += itr_aux
cmd = cmd[2:]
return instruction
def single_step(self, pc=None, symtable=None):
if pc != None:
self.pc = pc
opc = self.flash.get_word(self.pc)
self.pc += 2
if opc == None:
return None
entry = self.find_opcode(opc)
if entry == None:
return None
opd_dict = self.decode_operands(entry, pc, opc)
entry.sim_instr(self, entry.opcstr, opd_dict)
def _sql_identifier(expr):
return Suppress(Optional('`')) + expr + Suppress(Optional('`'))
])
# RULES: "Relative to"
factor_unit = (
simple_h_name.setResultsName("factor") +
Optional(Regex(".*").setResultsName("unparsed_unit"))).setParseAction(
lambda _s, l, t: {
'type': 'factor_unit',
'factor': t.factor,
'unparsed_unit': t.unparsed_unit if t.unparsed_unit else ""
})
# #### URL Parser ################################################################
url_chars = alphanums + '-_.~%+'
fragment = Combine((Suppress('#') + Word(url_chars)))('fragment')
scheme = oneOf('http https ftp file data')('scheme')
host = Combine(delimitedList(Word(url_chars), '.'))('host')
port = Suppress(':') + Word(nums)('port')
user_info = (Word(url_chars)('username') + Suppress(':') +
Word(url_chars)('password') + Suppress('@'))
query_pair = Group(Word(url_chars) + Suppress('=') + Word(url_chars))
query = Group(Suppress('?') + delimitedList(query_pair, '&'))('query')
path = Combine(Suppress('/') +
OneOrMore(~query + Word(url_chars + '/')))('path')
url_parser = (scheme.setResultsName("scheme") + Suppress('://') +
Optional(user_info).setResultsName("user_info") +
Optional(host).setResultsName("host") +
Optional(_AS + _SQL_ID.setResultsName("alias"))
_TABLE_NAME = _SQL_ID.setResultsName("table")
_PROCEDURE_NAME = _sql_identifier(
Word(alphanums + "_.:").setResultsName("name")).setResultsName('name')
_SELECT_COLUMN_LIST = delimitedList(Group(_SELECT_COLUMN),
combine=False).setResultsName("columns")
_SQL_ARG = Optional(_SQL_DIRECTION, default='IN') + _SQL_ID + _SQL_TYPE
_SQL_ARGS = delimitedList(Group(_SQL_ARG), combine=False)
_RETURN_TYPE = oneOf("object array", caseless=True).setResultsName("type")
# expressions
_DEFINE_FUNCTION = _DEFINE + _ID + nestedExpr(content=_ID_LIST, ignoreExpr=None).setResultsName("args") + \
Suppress(White()) + Regex(".*$").setResultsName("body")
_DEFINE_VAR = _DEFINE + _ID + SkipTo(lineEnd,
include=True).setResultsName("value")
_UNDEFINE = _UNDEF + _ID
_INCLUDE_FILE = _INCLUDE + quotedString.setResultsName("filename")
_EXPAND_VAR = Suppress('$') + _ID
_EXPAND_FUNC = Suppress('$') + _ID + nestedExpr(
content=_VALUE_LIST, ignoreExpr=None).setResultsName("args")
_IF_EXPR = _IF + SkipTo(lineEnd, include=True).setResultsName("condition")
_ELSE_EXPR = _ELSE + lineEnd
_ENDIF_EXPR = _ENDIF + lineEnd
_RETURN_HINT_EXPR = _select_hint(
Optional(_ID + Suppress(Literal(":"))) +
def __init__(self):
self.rules_parsed = 0
dot = Suppress(".")
colon = Word(":")
_is = Suppress("is")
_and = Suppress("and")
then = Suppress("then")
when = Suppress("when")
override = Suppress("override")
every = Suppress("every")
at = Suppress("at")
word = Word(alphas + nums + "-" + "_")
ignoredWord = Suppress(word)
verb = word.setResultsName('verb')
number = Word(nums)
word_or_sentence = (word | quotedString.setParseAction(removeQuotes))
identified_by = Suppress("identified by")
def __actions():
state = word_or_sentence.setResultsName("state")
receiver = word.setResultsName("receiver")
action = Group(verb + receiver + state)
actions = ZeroOrMore(action + _and) + action
return Optional("always").setResultsName(
"always_fire_actions") + Group(actions).setResultsName(
"actions") + Optional(
override + Optional("off")).setResultsName("override")
actions = __actions()
def receiver_input_rule():
path = Combine(ZeroOrMore(word + ".") + word)
input = path.setResultsName("input")
operator = oneOf(operators.keys()).setResultsName("operator")
value = path.setResultsName("value")
comparison = operator + value
is_or_was = Word("is") | Word("was")
condition = Group(input + is_or_was.setResultsName("temporal") +
comparison)
res = ZeroOrMore(condition + _and) + condition
conditions = Group(res).setResultsName("conditions")
return Optional("always").setResultsName(
"always_fire_rule") + when + conditions + then + actions
def schedule_rule():
timeIndication = at + Combine(Optional(number) + colon +
number).setResultsName("time")
recurringPlural = Group(
every + number.setResultsName("count") +
oneOf("days hours minutes seconds weeks").setResultsName(
"unit") +
Optional(timeIndication)).setResultsName("pluralSchedule")
recurringSingular = Group(
every +
oneOf("day hour minute second week sunday weekday weekendday"
).setResultsName("unit") +
Optional(timeIndication)).setResultsName("singularSchedule")
dayOfWeek = oneOf(
"monday tuesday wednesday thursday friday saturday sunday")
recurringDay = Group(
every + Group(ZeroOrMore(dayOfWeek + _and) +
dayOfWeek).setResultsName("unit") +
Optional(timeIndication)).setResultsName("singularSchedule")
return (recurringPlural | recurringSingular | recurringDay) + (
actions
| receiver_input_rule().setResultsName("nested-input-rule"))
rule_type = (receiver_input_rule().setResultsName("input-rule")
| schedule_rule().setResultsName("schedule-rule"))
self.rule = rule_type + Optional(identified_by +
word.setResultsName("rule-id"))
def split_text(text, tokens):
"""
Given a body of text that contains tokens,
splice the text along those tokens.
"""
starts = [text.find(t) for t in tokens]
slices = zip(starts, starts[1:])
texts = [text[i[0]:i[1]] for i in slices] + [text[starts[-1]:]]
return texts
_first_markers = []
for idx, level in enumerate(p_levels):
marker = (Suppress(Regex(u',|\.|-|—|>')) + Suppress('(') +
Literal(level[0]) + Suppress(')'))
for inner_idx in range(idx + 1, len(p_levels)):
inner_level = p_levels[inner_idx]
marker += Optional(
Suppress('(') + Literal(inner_level[0]) + Suppress(')'))
_first_markers.append(marker)
# @profile
def get_collapsed_markers(text):
"""Not all paragraph markers are at the beginning of of the text. This
grabs inner markers like (1) and (i) here:
(c) cContent —(1) 1Content (i) iContent"""
matches = []
# Only IDENTIFIER and EQUATIONS are ever used later
###############################################################################
# Basic Elements
###############################################################################
# identifiers like in C: can start with letter or underscore, then a
# combination of letters, numbers and underscores
# Note that the check_identifiers function later performs more checks, e.g.
# names starting with underscore should only be used internally
IDENTIFIER = Word(string.ascii_letters + '_', string.ascii_letters +
string.digits + '_').setResultsName('identifier')
# very broad definition here, expression will be analysed by sympy anyway
# allows for multi-line expressions, where each line can have comments
EXPRESSION = Combine(OneOrMore(
(CharsNotIn(':#\n') + Suppress(Optional(LineEnd()))).ignore('#' +
restOfLine)),
joinString=' ').setResultsName('expression')
# a unit
# very broad definition here, again. Whether this corresponds to a valid unit
# string will be checked later
UNIT = Word(string.ascii_letters + string.digits +
'*/.- ').setResultsName('unit')
# a single Flag (e.g. "const" or "event-driven")
FLAG = Word(string.ascii_letters, string.ascii_letters + '_- ' + string.digits)
# Flags are comma-separated and enclosed in parantheses: "(flag1, flag2)"
FLAGS = (Suppress('(') + FLAG + ZeroOrMore(Suppress(',') + FLAG) +
Suppress(')')).setResultsName('flags')
class Lindenmayer(object):
def __init__(self, stream):
# Set the default image dimensions ...
self.width = N
self.height = N
# ... and the number of iterations.
self.iterations = 5
# Set the default rotation angle in degrees.
self.alpha = 2*np.pi/8
self.angle = 0
# Initialize the branch stack, ...
self.stack = []
# ... the constants, the rules, the variables and the axiom ...
self.const = {'+':'+', '-':'-', '[':'[', ']':']'}
self.rules = {}
self.vars = []
self.axiom = None
# ... and drawing settings.
self.bgcolor = (1.0, 1.0, 1.0)
self.lineLength = 20
self.lineWidth = 5
self.lineColor = (0, 0, 0)
# Calculate the starting position.
self.offset = (0, -self.height*0.5)
print 'Offset :', self.offset
# Finally store the stream ...
self.stream = stream
self.arr = bak.calc()#np.zeros((N,N))#
print "Baking Bread..."
# state
self.x = int(self.width/2)#int(self.width/2)
self.y = int(self.height/2)
self.r = 16
self.xparent = self.x
self.yparent = self.y
# ... and initialize the parser.
self.initialize()
# calculates new radius based on a poisson distribution (?)
def poisson(self):
global bubbles, delta
#x1 = min(max(self.x-delta,0),N)
#y1 = min(max(self.y-delta,0),N)
x1 = self.x
y1 = self.y
suma = 0.0
x0 = max(x1-delta,0)
y0 = max(y1-delta,0)
x2 = min(x1+delta,N)
y2 = min(y1+delta,N)
#print x0,y0,x2,y2
#print abs(x0-x2),abs(y0-y2)
cant = 0
for i in range(x0,x2):
for j in range(y0,y2):
#d = np.sqrt((x1-i)*(x1-i) + (y1-j)*(y1-j)).astype(np.float32) # distance
#if(d==0): suma+=bubbles[i,j]
#else:
suma += bubbles[i,j]#*(np.sqrt(2)*delta+1-d)/(np.sqrt(2)*delta)
cant += bubbles[i,j]>0
#suma += np.pi*bubbles[i,j]*bubbles[i,j]
#if(bubbles[i,j]): print "RADIO:" , bubbles[i,j]
factor = delta # (?)
#print "Suma:", suma, "Delta: ", delta
#print factor*(1/suma)
#1/ sum_D (cant*radios*D^2)
#D = np.sqrt(np.power((self.x-self.height/2),2)+np.power((self.y-self.width/2),2))
G = 1#+2.5*self.arr[min(self.width,max(self.x-1,0)),min(self.width,max(self.y-1,0))]#D/300 #gelatinization
#print "G: ", G
x1 = min(max(self.x-delta,0),N)
y1 = min(max(self.y-delta,0),N)
baking = self.arr[x1,y1]*4
#print baking, ": baking"
if(suma > 0):
m = 1/suma
#if(delta*m < 1): return np.random.randint(0,2)
if(cant>10): return 0
return np.random.randint(0,delta*m+2)/baking
else: # free
return np.random.randint(0,delta/2+delta/2)/baking
def rotate(self):
#self.x += self.r
#self.y += self.r
#d = 2*np.pi*random.random()
ang = self.angle+random.random()/6
self.x = self.xparent + np.int32(fdist(self.r)*np.cos(ang))+randint(-int(self.r),int(self.r))
self.y = self.yparent + np.int32(fdist(self.r)*np.sin(ang))+randint(-int(self.r),int(self.r))
#self.x = self.xparent + np.int32(fdist(self.r)*np.cos(ang))+randint(-int(self.r),int(self.r))
#self.y = self.yparent + np.int32(fdist(self.r)*np.sin(ang))+randint(-int(self.r),int(self.r))
#pass
def moveX(self):
self.x += self.r
def mmoveX(self):
self.x -= self.r
def moveY(self):
self.y += self.r
def mmoveY(self):
self.y -= self.r
def initialize(self):
ParserElement.setDefaultWhitespaceChars(' \t\r')
integer = Regex(r"[+-]?\d+") \
.setParseAction(lambda s,l,t: [ int(t[0]) ])
number = Regex(r"[+-]?(\d+(\.\d*)?|\.\d+)([eE][+-]?\d+)?") \
.setParseAction(lambda s,l,t: [ float(t[0]) ])
color = Regex(r"#([0-9a-fA-F]{6})")
angle = "'" + Regex(r"(360|3[0-5][0-9]|[12][0-9]{2}|[0-9]{1,2})") \
.setParseAction(lambda s,l,t: [ int(t[0]) ])
alpha = "'" + Regex(r"(360|3[0-5][0-9]|[12][0-9]{2}|[0-9]{1,2})") \
.setParseAction(lambda s,l,t: [ int(t[0]) ])
variable = Word(alphas, exact=1).setParseAction(self.addVar)
colon = Literal(":").suppress()
comma = Literal(",")
lBrace = Literal("(")
rBrace = Literal(")")
lBracket = Literal("[")
rBracket = Literal("]")
lAngle = Literal("<")
rAngle = Literal(">")
plus = Literal("+")
minus = Literal("-")
FTerm = Literal("F")
fTerm = Literal("f")
ZTerm = Literal("Z")
zTerm = Literal("z")
xTerm = Literal("x")
cTerm = Literal("c")
eol = OneOrMore(LineEnd()).suppress()
param = ( angle | color | "!" + number | "|" + number )
self.pList = lBrace + param + ZeroOrMore(comma + param) + rBrace
literal = ((lBracket + ( variable + Optional(self.pList)
| plus + Optional(self.pList) | minus + Optional(self.pList) ) + rBracket)
| (variable + Optional(self.pList) | plus + Optional(self.pList)
| minus + Optional(self.pList)))
terminal = (ZTerm | zTerm | FTerm | fTerm | xTerm | cTerm
| plus | minus | lBracket | rBracket)
lprod = (
(OneOrMore(terminal) + lAngle + variable + rAngle + OneOrMore(terminal))
| (OneOrMore(terminal) + lAngle + variable)
| (variable + rAngle + OneOrMore(terminal))
| variable )
rProd = OneOrMore(literal | terminal)
comment = Suppress((LineStart() + "#" + SkipTo(eol, include=True)))
rules = (
(lprod + Literal("=") + rProd + eol).setParseAction(self.addRule) \
| comment )
defaults = ( ( ("Dimensions" + colon + integer + comma + integer)
| ("Position" + colon + integer + comma + integer)
| ("Iterations" + colon + integer)
| ("Angle" + colon + angle)
| ("Linelength" + colon + number)
| ("Linewidth" + colon + number)
| ("Linecolor" + colon + color)
| ("Background" + colon + color)
| ("Axiom" + colon + rProd) ) + eol ).setParseAction(self.setAttribute)
header = ( defaults | comment )
self.grammar = Suppress(ZeroOrMore(LineEnd())) \
+ ZeroOrMore(header) \
+ OneOrMore(rules)
try:
L = self.grammar.parseString( self.stream )
except ParseException, err:
print err.line
print " "*(err.column-1) + "^"
print err
print 'Rules:', self.rules
def parse(content, basedir=None, resolve=True):
"""parse a HOCON content
:param content: HOCON content to parse
:type content: basestring
:param resolve: If true, resolve substitutions
:type resolve: boolean
:return: a ConfigTree or a list
"""
def norm_string(value):
for k, v in ConfigParser.REPLACEMENTS.items():
value = value.replace(k, v)
return value
def unescape_string(tokens):
return ConfigUnquotedString(norm_string(tokens[0]))
def parse_multi_string(tokens):
# remove the first and last 3 "
return tokens[0][3:-3]
def convert_number(tokens):
n = tokens[0]
try:
return int(n)
except ValueError:
return float(n)
# ${path} or ${?path} for optional substitution
SUBSTITUTION_PATTERN = "\$\{(?P<optional>\?)?(?P<variable>[^}]+)\}(?P<ws>[ \t]*)"
def create_substitution(instring, loc, token):
# remove the ${ and }
match = re.match(SUBSTITUTION_PATTERN, token[0])
variable = match.group('variable')
ws = match.group('ws')
optional = match.group('optional') == '?'
substitution = ConfigSubstitution(variable, optional, ws, instring,
loc)
return substitution
# ${path} or ${?path} for optional substitution
STRING_PATTERN = '(")(?P<value>[^"]*)\\1(?P<ws>[ \t]*)'
def create_quoted_string(instring, loc, token):
# remove the ${ and }
match = re.match(STRING_PATTERN, token[0])
value = norm_string(match.group('value'))
ws = match.group('ws')
return ConfigQuotedString(value, ws, instring, loc)
def include_config(token):
url = None
file = None
if len(token) == 1: # include "test"
value = token[0].value if isinstance(
token[0], ConfigQuotedString) else token[0]
if value.startswith("http://") or value.startswith(
"https://") or value.startswith("file://"):
url = value
else:
file = value
elif len(token) == 2: # include url("test") or file("test")
value = token[1].value if isinstance(
token[1], ConfigQuotedString) else token[1]
if token[0] == 'url':
url = value
else:
file = value
if url is not None:
logger.debug('Loading config from url %s', url)
obj = ConfigFactory.parse_URL(url, resolve=False)
if file is not None:
path = file if basedir is None else os.path.join(basedir, file)
logger.debug('Loading config from file %s', path)
obj = ConfigFactory.parse_file(path,
required=False,
resolve=False)
return ConfigInclude(obj if isinstance(obj, list) else obj.items())
ParserElement.setDefaultWhitespaceChars(' \t')
assign_expr = Forward()
true_expr = Keyword("true",
caseless=True).setParseAction(replaceWith(True))
false_expr = Keyword("false",
caseless=True).setParseAction(replaceWith(False))
null_expr = Keyword("null", caseless=True).setParseAction(
replaceWith(NoneValue()))
key = QuotedString(
'"', escChar='\\',
unquoteResults=False) | Word(alphanums + alphas8bit + '._- ')
eol = Word('\n\r').suppress()
eol_comma = Word('\n\r,').suppress()
comment = (Literal('#') | Literal('//')) - SkipTo(eol | StringEnd())
comment_eol = Suppress(Optional(eol_comma) + comment)
comment_no_comma_eol = (comment | eol).suppress()
number_expr = Regex(
'[+-]?(\d*\.\d+|\d+(\.\d+)?)([eE]\d+)?(?=$|[ \t]*([\$\}\],#\n\r]|//))',
re.DOTALL).setParseAction(convert_number)
# multi line string using """
# Using fix described in http://pyparsing.wikispaces.com/share/view/3778969
multiline_string = Regex(
'""".*?"""',
re.DOTALL | re.UNICODE).setParseAction(parse_multi_string)
# single quoted line string
quoted_string = Regex('".*?"[ \t]*',
re.UNICODE).setParseAction(create_quoted_string)
# unquoted string that takes the rest of the line until an optional comment
# we support .properties multiline support which is like this:
# line1 \
# line2 \
# so a backslash precedes the \n
unquoted_string = Regex('(?:\\\\|[^\[\{\s\]\}#,=\$])+[ \t]*'
).setParseAction(unescape_string)
substitution_expr = Regex('[ \t]*\$\{[^\}]+\}[ \t]*').setParseAction(
create_substitution)
string_expr = multiline_string | quoted_string | unquoted_string
value_expr = number_expr | true_expr | false_expr | null_expr | string_expr
include_expr = (Keyword("include", caseless=True).suppress() + (
quoted_string | (
(Keyword('url') | Keyword('file')) - Literal('(').suppress() - quoted_string - Literal(')').suppress()))) \
.setParseAction(include_config)
root_dict_expr = Forward()
dict_expr = Forward()
list_expr = Forward()
multi_value_expr = ZeroOrMore(comment_eol | include_expr
| substitution_expr | dict_expr
| list_expr | value_expr
| (Literal('\\') - eol).suppress())
# for a dictionary : or = is optional
# last zeroOrMore is because we can have t = {a:4} {b: 6} {c: 7} which is dictionary concatenation
inside_dict_expr = ConfigTreeParser(
ZeroOrMore(comment_eol | include_expr | assign_expr | eol_comma))
inside_root_dict_expr = ConfigTreeParser(
ZeroOrMore(comment_eol | include_expr | assign_expr | eol_comma),
root=True)
dict_expr << Suppress('{') - inside_dict_expr - Suppress('}')
root_dict_expr << Suppress('{') - inside_root_dict_expr - Suppress('}')
list_entry = ConcatenatedValueParser(multi_value_expr)
list_expr << Suppress('[') - ListParser(
list_entry - ZeroOrMore(eol_comma - list_entry)) - Suppress(']')
# special case when we have a value assignment where the string can potentially be the remainder of the line
assign_expr << Group(key - ZeroOrMore(comment_no_comma_eol) -
(dict_expr |
(Literal('=') | Literal(':') | Literal('+=')) -
ZeroOrMore(comment_no_comma_eol) -
ConcatenatedValueParser(multi_value_expr)))
# the file can be { ... } where {} can be omitted or []
config_expr = ZeroOrMore(comment_eol | eol) + (
list_expr | root_dict_expr
| inside_root_dict_expr) + ZeroOrMore(comment_eol | eol_comma)
config = config_expr.parseString(content, parseAll=True)[0]
if resolve:
ConfigParser.resolve_substitutions(config)
return config
RPC = Keyword('rpc')
RETURNS = Keyword('returns')
SERVICE = Keyword('service')
OPTION = Keyword('option')
ENUM = Keyword('enum')
ONEOF = Keyword('oneof')
REQUIRED = Keyword('required')
OPTIONAL = Keyword('optional')
REPEATED = Keyword('repeated')
TRUE = Keyword('true')
FALSE = Keyword('false')
message_body = Forward()
message_definition= Suppress(MESSAGE) - identifier("message_id") + Suppress(LBRACE) + message_body("message_body") + Suppress(RBRACE)
message_definition.setParseAction(message_definition_fn)
enum_definition= ENUM - identifier + LBRACE + ZeroOrMore(Group(identifier + EQ + integer + SEMI) ) + RBRACE
DOUBLE = Keyword("double")
INT32 = Keyword("int32")
UINT32 = Keyword("uint32")
BOOL = Keyword("bool")
STRING = Keyword("string")
type_ = (DOUBLE | UINT32 | BOOL | STRING | identifier)
type_.setParseAction(type_fn)
qualifier = (REQUIRED | OPTIONAL | REPEATED )("qualifier")
qualifier.setParseAction(qualifier_fn)
field = qualifier - type_("type_") + identifier("identifier") + EQ + integer("field_number") + SEMI
field.setParseAction(field_fn)
def compute(self, text, verbose=True):
# Literals
dollar = Literal('$')
amper = Literal('&')
at = Literal('@')
qm = Literal('?')
em = Literal('!')
dot = Literal('.')
colon = Literal(":")
vbar = Literal("|")
lbrack = Literal("[")
rbrack = Literal("]")
lcurly = Literal("{")
rcurly = Literal("}")
lparen = Literal("(")
rparen = Literal(")")
lt = Literal("<")
gt = Literal(">")
eq = Literal("=")
deq = Literal("==")
eol = LineEnd().suppress()
# Reusables
spellId = Word(nums, min=2, max=6).addParseAction(
tokenMap(int)).setResultsName("spellId")
idx = Word(nums,
max=1).addParseAction(tokenMap(int)).setResultsName("id")
var = Word(alphas).setResultsName("var")
# Spell References
effectId = Optional(
Word(nums, max=2).addParseAction(
tokenMap(int)).setResultsName("effectId"))
references = (dollar.suppress() +
((at.suppress() + var + Optional(spellId)) |
(spellId + var + effectId) |
(var + effectId))).addParseAction(self.setReferences)
# Conditions
brackets = Suppress(lbrack) + SkipTo(rbrack).setResultsName(
"statement") + Suppress(rbrack)
value = Word(nums, max=5).addParseAction(
tokenMap(int)).setResultsName("value")
conditionVar = Group(
Optional(em).setResultsName("not") + Optional(var) +
(spellId | idx)
| Optional("-") + value
| Word(alphanums, exact=8).setResultsName("hashVariable"))
conditions = ((dollar + qm).suppress() + OneOrMore(
Group(
Optional(Suppress(qm)) + Optional(Suppress(lparen)) +
OneOrMore(
conditionVar.setResultsName("variables*") +
Optional(Combine(em + eq) | amper | vbar | deq | lt
| gt).setResultsName("operators*")) +
Optional(Suppress(rparen)) +
brackets).setResultsName("conditions*")) +
brackets).addParseAction(lambda t: self.setConditions(
t, verbose=verbose)) + Optional(dot.suppress())
# Call Variable
callVariables = (Suppress((lt + dollar) | (dollar + lt)) +
SkipTo(gt).setResultsName("name") +
Suppress(gt)).addParseAction(self.callVariables)
# Expressions
expressions = (
Suppress(dollar + lcurly) +
SkipTo(rcurly).setResultsName("content") + rcurly + Optional(
dot.suppress() + Word(nums, exact=1).addParseAction(
tokenMap(int)).setResultsName("mod"), )
).addParseAction(lambda t: self.setExpressions(t, verbose=verbose))
# Language Choices
languageChoices = (
(Literal('$L') | Literal('$l')).suppress() +
OneOrMore(Word(alphas) + Optional(Literal(":").suppress())
).setResultsName("options*") +
Literal(';').suppress()).addParseAction(self.setLanguageChoices)
# Icons
icons = (Literal("|T").suppress() +
SkipTo(colon).setResultsName("path") +
colon.suppress() + Word(nums, exact=2).addParseAction(
tokenMap(int)).setResultsName("size") +
Literal("|t").suppress()).addParseAction(self.setIcons)
# Parsing layer by layer
parsingOrder = [
icons, languageChoices, callVariables, references, expressions,
conditions
]
steps = [text]
for parser in parsingOrder:
steps.append(parser.transformString(steps[-1]))
result = steps[-1]
# Colors
endTag = ((vbar + (Literal("r") | Literal("R")) | eol))
parser = (Suppress(vbar + (Literal("c") | Literal("C"))) +
Word(hexnums, exact=8).setResultsName("hex") +
SkipTo(endTag).setResultsName("content") +
Suppress(endTag)).addParseAction(self.colorize)
new_result = parser.transformString(result)
result = parser.transformString(new_result)
while (new_result != result):
new_result = result
result = parser.transformString(new_result)
# Replace each Sha1 Hash placeholder by refering value
if verbose:
for k, v in self.variables.items():
result = result.replace(k, str(v))
# Display fixes
displayFixes = [["*% of", "% of"], ["power)%", "power)"]]
for bef, aft in displayFixes:
result = result.replace(bef, aft)
# Normalize line breakers
result = result.replace("\n\n\n", "\n\n").strip("\n")
if self.formatType == "html" and verbose:
result = result.replace("\r\n", "<br>").replace("\n", "<br>")
return result