diff --git a/trunk/3rdparty/gprof/build_gprof2dot.sh b/trunk/3rdparty/gprof/build_gprof2dot.sh
deleted file mode 100755
index c8a53ff6d..000000000
--- a/trunk/3rdparty/gprof/build_gprof2dot.sh
+++ /dev/null
@@ -1,17 +0,0 @@
-#!/bin/bash
-
-# check exists.
-if [[ -d graphviz-2.18 ]]; then
- echo "graphviz is ok";
- exit 0;
-fi
-
-# check sudoer.
-sudo echo "ok" > /dev/null 2>&1;
-ret=$?; if [[ 0 -ne ${ret} ]]; then echo "you must be sudoer"; exit 1; fi
-
-unzip -q graphviz-2.36.0.zip
-cd graphviz-2.36.0 && ./configure && make && sudo make install
-ret=$?; if [[ $ret -ne 0 ]]; then echo "build gprof2dot failed."; exit $ret; fi
-
-echo "we test in Centos6.0, it's ok"
diff --git a/trunk/3rdparty/gprof/gprof2dot.py b/trunk/3rdparty/gprof/gprof2dot.py
deleted file mode 100755
index 55eb53ad8..000000000
--- a/trunk/3rdparty/gprof/gprof2dot.py
+++ /dev/null
@@ -1,2227 +0,0 @@
-#!/usr/bin/env python
-#
-# Copyright 2008-2009 Jose Fonseca
-#
-# This program is free software: you can redistribute it and/or modify it
-# under the terms of the GNU Lesser General Public License as published
-# by the Free Software Foundation, either version 3 of the License, or
-# (at your option) any later version.
-#
-# This program is distributed in the hope that it will be useful,
-# but WITHOUT ANY WARRANTY; without even the implied warranty of
-# MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
-# GNU Lesser General Public License for more details.
-#
-# You should have received a copy of the GNU Lesser General Public License
-# along with this program. If not, see .
-#
-
-"""Generate a dot graph from the output of several profilers."""
-
-__author__ = "Jose Fonseca"
-
-__version__ = "1.0"
-
-
-import sys
-import math
-import os.path
-import re
-import textwrap
-import optparse
-import xml.parsers.expat
-
-
-try:
- # Debugging helper module
- import debug
-except ImportError:
- pass
-
-
-def percentage(p):
- return "%.02f%%" % (p*100.0,)
-
-def add(a, b):
- return a + b
-
-def equal(a, b):
- if a == b:
- return a
- else:
- return None
-
-def fail(a, b):
- assert False
-
-
-tol = 2 ** -23
-
-def ratio(numerator, denominator):
- try:
- ratio = float(numerator)/float(denominator)
- except ZeroDivisionError:
- # 0/0 is undefined, but 1.0 yields more useful results
- return 1.0
- if ratio < 0.0:
- if ratio < -tol:
- sys.stderr.write('warning: negative ratio (%s/%s)\n' % (numerator, denominator))
- return 0.0
- if ratio > 1.0:
- if ratio > 1.0 + tol:
- sys.stderr.write('warning: ratio greater than one (%s/%s)\n' % (numerator, denominator))
- return 1.0
- return ratio
-
-
-class UndefinedEvent(Exception):
- """Raised when attempting to get an event which is undefined."""
-
- def __init__(self, event):
- Exception.__init__(self)
- self.event = event
-
- def __str__(self):
- return 'unspecified event %s' % self.event.name
-
-
-class Event(object):
- """Describe a kind of event, and its basic operations."""
-
- def __init__(self, name, null, aggregator, formatter = str):
- self.name = name
- self._null = null
- self._aggregator = aggregator
- self._formatter = formatter
-
- def __eq__(self, other):
- return self is other
-
- def __hash__(self):
- return id(self)
-
- def null(self):
- return self._null
-
- def aggregate(self, val1, val2):
- """Aggregate two event values."""
- assert val1 is not None
- assert val2 is not None
- return self._aggregator(val1, val2)
-
- def format(self, val):
- """Format an event value."""
- assert val is not None
- return self._formatter(val)
-
-
-MODULE = Event("Module", None, equal)
-PROCESS = Event("Process", None, equal)
-
-CALLS = Event("Calls", 0, add)
-SAMPLES = Event("Samples", 0, add)
-SAMPLES2 = Event("Samples", 0, add)
-
-TIME = Event("Time", 0.0, add, lambda x: '(' + str(x) + ')')
-TIME_RATIO = Event("Time ratio", 0.0, add, lambda x: '(' + percentage(x) + ')')
-TOTAL_TIME = Event("Total time", 0.0, fail)
-TOTAL_TIME_RATIO = Event("Total time ratio", 0.0, fail, percentage)
-
-CALL_RATIO = Event("Call ratio", 0.0, add, percentage)
-
-PRUNE_RATIO = Event("Prune ratio", 0.0, add, percentage)
-
-
-class Object(object):
- """Base class for all objects in profile which can store events."""
-
- def __init__(self, events=None):
- if events is None:
- self.events = {}
- else:
- self.events = events
-
- def __hash__(self):
- return id(self)
-
- def __eq__(self, other):
- return self is other
-
- def __contains__(self, event):
- return event in self.events
-
- def __getitem__(self, event):
- try:
- return self.events[event]
- except KeyError:
- raise UndefinedEvent(event)
-
- def __setitem__(self, event, value):
- if value is None:
- if event in self.events:
- del self.events[event]
- else:
- self.events[event] = value
-
-
-class Call(Object):
- """A call between functions.
-
- There should be at most one call object for every pair of functions.
- """
-
- def __init__(self, callee_id):
- Object.__init__(self)
- self.callee_id = callee_id
-
-
-class Function(Object):
- """A function."""
-
- def __init__(self, id, name):
- Object.__init__(self)
- self.id = id
- self.name = name
- self.calls = {}
- self.cycle = None
-
- def add_call(self, call):
- if call.callee_id in self.calls:
- sys.stderr.write('warning: overwriting call from function %s to %s\n' % (str(self.id), str(call.callee_id)))
- self.calls[call.callee_id] = call
-
- # TODO: write utility functions
-
- def __repr__(self):
- return self.name
-
-
-class Cycle(Object):
- """A cycle made from recursive function calls."""
-
- def __init__(self):
- Object.__init__(self)
- # XXX: Do cycles need an id?
- self.functions = set()
-
- def add_function(self, function):
- assert function not in self.functions
- self.functions.add(function)
- # XXX: Aggregate events?
- if function.cycle is not None:
- for other in function.cycle.functions:
- if function not in self.functions:
- self.add_function(other)
- function.cycle = self
-
-
-class Profile(Object):
- """The whole profile."""
-
- def __init__(self):
- Object.__init__(self)
- self.functions = {}
- self.cycles = []
-
- def add_function(self, function):
- if function.id in self.functions:
- sys.stderr.write('warning: overwriting function %s (id %s)\n' % (function.name, str(function.id)))
- self.functions[function.id] = function
-
- def add_cycle(self, cycle):
- self.cycles.append(cycle)
-
- def validate(self):
- """Validate the edges."""
-
- for function in self.functions.itervalues():
- for callee_id in function.calls.keys():
- assert function.calls[callee_id].callee_id == callee_id
- if callee_id not in self.functions:
- sys.stderr.write('warning: call to undefined function %s from function %s\n' % (str(callee_id), function.name))
- del function.calls[callee_id]
-
- def find_cycles(self):
- """Find cycles using Tarjan's strongly connected components algorithm."""
-
- # Apply the Tarjan's algorithm successively until all functions are visited
- visited = set()
- for function in self.functions.itervalues():
- if function not in visited:
- self._tarjan(function, 0, [], {}, {}, visited)
- cycles = []
- for function in self.functions.itervalues():
- if function.cycle is not None and function.cycle not in cycles:
- cycles.append(function.cycle)
- self.cycles = cycles
- if 0:
- for cycle in cycles:
- sys.stderr.write("Cycle:\n")
- for member in cycle.functions:
- sys.stderr.write("\tFunction %s\n" % member.name)
-
- def _tarjan(self, function, order, stack, orders, lowlinks, visited):
- """Tarjan's strongly connected components algorithm.
-
- See also:
- - http://en.wikipedia.org/wiki/Tarjan's_strongly_connected_components_algorithm
- """
-
- visited.add(function)
- orders[function] = order
- lowlinks[function] = order
- order += 1
- pos = len(stack)
- stack.append(function)
- for call in function.calls.itervalues():
- callee = self.functions[call.callee_id]
- # TODO: use a set to optimize lookup
- if callee not in orders:
- order = self._tarjan(callee, order, stack, orders, lowlinks, visited)
- lowlinks[function] = min(lowlinks[function], lowlinks[callee])
- elif callee in stack:
- lowlinks[function] = min(lowlinks[function], orders[callee])
- if lowlinks[function] == orders[function]:
- # Strongly connected component found
- members = stack[pos:]
- del stack[pos:]
- if len(members) > 1:
- cycle = Cycle()
- for member in members:
- cycle.add_function(member)
- return order
-
- def call_ratios(self, event):
- # Aggregate for incoming calls
- cycle_totals = {}
- for cycle in self.cycles:
- cycle_totals[cycle] = 0.0
- function_totals = {}
- for function in self.functions.itervalues():
- function_totals[function] = 0.0
- for function in self.functions.itervalues():
- for call in function.calls.itervalues():
- if call.callee_id != function.id:
- callee = self.functions[call.callee_id]
- function_totals[callee] += call[event]
- if callee.cycle is not None and callee.cycle is not function.cycle:
- cycle_totals[callee.cycle] += call[event]
-
- # Compute the ratios
- for function in self.functions.itervalues():
- for call in function.calls.itervalues():
- assert CALL_RATIO not in call
- if call.callee_id != function.id:
- callee = self.functions[call.callee_id]
- if callee.cycle is not None and callee.cycle is not function.cycle:
- total = cycle_totals[callee.cycle]
- else:
- total = function_totals[callee]
- call[CALL_RATIO] = ratio(call[event], total)
-
- def integrate(self, outevent, inevent):
- """Propagate function time ratio allong the function calls.
-
- Must be called after finding the cycles.
-
- See also:
- - http://citeseer.ist.psu.edu/graham82gprof.html
- """
-
- # Sanity checking
- assert outevent not in self
- for function in self.functions.itervalues():
- assert outevent not in function
- assert inevent in function
- for call in function.calls.itervalues():
- assert outevent not in call
- if call.callee_id != function.id:
- assert CALL_RATIO in call
-
- # Aggregate the input for each cycle
- for cycle in self.cycles:
- total = inevent.null()
- for function in self.functions.itervalues():
- total = inevent.aggregate(total, function[inevent])
- self[inevent] = total
-
- # Integrate along the edges
- total = inevent.null()
- for function in self.functions.itervalues():
- total = inevent.aggregate(total, function[inevent])
- self._integrate_function(function, outevent, inevent)
- self[outevent] = total
-
- def _integrate_function(self, function, outevent, inevent):
- if function.cycle is not None:
- return self._integrate_cycle(function.cycle, outevent, inevent)
- else:
- if outevent not in function:
- total = function[inevent]
- for call in function.calls.itervalues():
- if call.callee_id != function.id:
- total += self._integrate_call(call, outevent, inevent)
- function[outevent] = total
- return function[outevent]
-
- def _integrate_call(self, call, outevent, inevent):
- assert outevent not in call
- assert CALL_RATIO in call
- callee = self.functions[call.callee_id]
- subtotal = call[CALL_RATIO]*self._integrate_function(callee, outevent, inevent)
- call[outevent] = subtotal
- return subtotal
-
- def _integrate_cycle(self, cycle, outevent, inevent):
- if outevent not in cycle:
-
- # Compute the outevent for the whole cycle
- total = inevent.null()
- for member in cycle.functions:
- subtotal = member[inevent]
- for call in member.calls.itervalues():
- callee = self.functions[call.callee_id]
- if callee.cycle is not cycle:
- subtotal += self._integrate_call(call, outevent, inevent)
- total += subtotal
- cycle[outevent] = total
-
- # Compute the time propagated to callers of this cycle
- callees = {}
- for function in self.functions.itervalues():
- if function.cycle is not cycle:
- for call in function.calls.itervalues():
- callee = self.functions[call.callee_id]
- if callee.cycle is cycle:
- try:
- callees[callee] += call[CALL_RATIO]
- except KeyError:
- callees[callee] = call[CALL_RATIO]
-
- for member in cycle.functions:
- member[outevent] = outevent.null()
-
- for callee, call_ratio in callees.iteritems():
- ranks = {}
- call_ratios = {}
- partials = {}
- self._rank_cycle_function(cycle, callee, 0, ranks)
- self._call_ratios_cycle(cycle, callee, ranks, call_ratios, set())
- partial = self._integrate_cycle_function(cycle, callee, call_ratio, partials, ranks, call_ratios, outevent, inevent)
- assert partial == max(partials.values())
- assert not total or abs(1.0 - partial/(call_ratio*total)) <= 0.001
-
- return cycle[outevent]
-
- def _rank_cycle_function(self, cycle, function, rank, ranks):
- if function not in ranks or ranks[function] > rank:
- ranks[function] = rank
- for call in function.calls.itervalues():
- if call.callee_id != function.id:
- callee = self.functions[call.callee_id]
- if callee.cycle is cycle:
- self._rank_cycle_function(cycle, callee, rank + 1, ranks)
-
- def _call_ratios_cycle(self, cycle, function, ranks, call_ratios, visited):
- if function not in visited:
- visited.add(function)
- for call in function.calls.itervalues():
- if call.callee_id != function.id:
- callee = self.functions[call.callee_id]
- if callee.cycle is cycle:
- if ranks[callee] > ranks[function]:
- call_ratios[callee] = call_ratios.get(callee, 0.0) + call[CALL_RATIO]
- self._call_ratios_cycle(cycle, callee, ranks, call_ratios, visited)
-
- def _integrate_cycle_function(self, cycle, function, partial_ratio, partials, ranks, call_ratios, outevent, inevent):
- if function not in partials:
- partial = partial_ratio*function[inevent]
- for call in function.calls.itervalues():
- if call.callee_id != function.id:
- callee = self.functions[call.callee_id]
- if callee.cycle is not cycle:
- assert outevent in call
- partial += partial_ratio*call[outevent]
- else:
- if ranks[callee] > ranks[function]:
- callee_partial = self._integrate_cycle_function(cycle, callee, partial_ratio, partials, ranks, call_ratios, outevent, inevent)
- call_ratio = ratio(call[CALL_RATIO], call_ratios[callee])
- call_partial = call_ratio*callee_partial
- try:
- call[outevent] += call_partial
- except UndefinedEvent:
- call[outevent] = call_partial
- partial += call_partial
- partials[function] = partial
- try:
- function[outevent] += partial
- except UndefinedEvent:
- function[outevent] = partial
- return partials[function]
-
- def aggregate(self, event):
- """Aggregate an event for the whole profile."""
-
- total = event.null()
- for function in self.functions.itervalues():
- try:
- total = event.aggregate(total, function[event])
- except UndefinedEvent:
- return
- self[event] = total
-
- def ratio(self, outevent, inevent):
- assert outevent not in self
- assert inevent in self
- for function in self.functions.itervalues():
- assert outevent not in function
- assert inevent in function
- function[outevent] = ratio(function[inevent], self[inevent])
- for call in function.calls.itervalues():
- assert outevent not in call
- if inevent in call:
- call[outevent] = ratio(call[inevent], self[inevent])
- self[outevent] = 1.0
-
- def prune(self, node_thres, edge_thres):
- """Prune the profile"""
-
- # compute the prune ratios
- for function in self.functions.itervalues():
- try:
- function[PRUNE_RATIO] = function[TOTAL_TIME_RATIO]
- except UndefinedEvent:
- pass
-
- for call in function.calls.itervalues():
- callee = self.functions[call.callee_id]
-
- if TOTAL_TIME_RATIO in call:
- # handle exact cases first
- call[PRUNE_RATIO] = call[TOTAL_TIME_RATIO]
- else:
- try:
- # make a safe estimate
- call[PRUNE_RATIO] = min(function[TOTAL_TIME_RATIO], callee[TOTAL_TIME_RATIO])
- except UndefinedEvent:
- pass
-
- # prune the nodes
- for function_id in self.functions.keys():
- function = self.functions[function_id]
- try:
- if function[PRUNE_RATIO] < node_thres:
- del self.functions[function_id]
- except UndefinedEvent:
- pass
-
- # prune the egdes
- for function in self.functions.itervalues():
- for callee_id in function.calls.keys():
- call = function.calls[callee_id]
- try:
- if callee_id not in self.functions or call[PRUNE_RATIO] < edge_thres:
- del function.calls[callee_id]
- except UndefinedEvent:
- pass
-
- def dump(self):
- for function in self.functions.itervalues():
- sys.stderr.write('Function %s:\n' % (function.name,))
- self._dump_events(function.events)
- for call in function.calls.itervalues():
- callee = self.functions[call.callee_id]
- sys.stderr.write(' Call %s:\n' % (callee.name,))
- self._dump_events(call.events)
- for cycle in self.cycles:
- sys.stderr.write('Cycle:\n')
- self._dump_events(cycle.events)
- for function in cycle.functions:
- sys.stderr.write(' Function %s\n' % (function.name,))
-
- def _dump_events(self, events):
- for event, value in events.iteritems():
- sys.stderr.write(' %s: %s\n' % (event.name, event.format(value)))
-
-
-class Struct:
- """Masquerade a dictionary with a structure-like behavior."""
-
- def __init__(self, attrs = None):
- if attrs is None:
- attrs = {}
- self.__dict__['_attrs'] = attrs
-
- def __getattr__(self, name):
- try:
- return self._attrs[name]
- except KeyError:
- raise AttributeError(name)
-
- def __setattr__(self, name, value):
- self._attrs[name] = value
-
- def __str__(self):
- return str(self._attrs)
-
- def __repr__(self):
- return repr(self._attrs)
-
-
-class ParseError(Exception):
- """Raised when parsing to signal mismatches."""
-
- def __init__(self, msg, line):
- self.msg = msg
- # TODO: store more source line information
- self.line = line
-
- def __str__(self):
- return '%s: %r' % (self.msg, self.line)
-
-
-class Parser:
- """Parser interface."""
-
- def __init__(self):
- pass
-
- def parse(self):
- raise NotImplementedError
-
-
-class LineParser(Parser):
- """Base class for parsers that read line-based formats."""
-
- def __init__(self, file):
- Parser.__init__(self)
- self._file = file
- self.__line = None
- self.__eof = False
-
- def readline(self):
- line = self._file.readline()
- if not line:
- self.__line = ''
- self.__eof = True
- self.__line = line.rstrip('\r\n')
-
- def lookahead(self):
- assert self.__line is not None
- return self.__line
-
- def consume(self):
- assert self.__line is not None
- line = self.__line
- self.readline()
- return line
-
- def eof(self):
- assert self.__line is not None
- return self.__eof
-
-
-XML_ELEMENT_START, XML_ELEMENT_END, XML_CHARACTER_DATA, XML_EOF = range(4)
-
-
-class XmlToken:
-
- def __init__(self, type, name_or_data, attrs = None, line = None, column = None):
- assert type in (XML_ELEMENT_START, XML_ELEMENT_END, XML_CHARACTER_DATA, XML_EOF)
- self.type = type
- self.name_or_data = name_or_data
- self.attrs = attrs
- self.line = line
- self.column = column
-
- def __str__(self):
- if self.type == XML_ELEMENT_START:
- return '<' + self.name_or_data + ' ...>'
- if self.type == XML_ELEMENT_END:
- return '' + self.name_or_data + '>'
- if self.type == XML_CHARACTER_DATA:
- return self.name_or_data
- if self.type == XML_EOF:
- return 'end of file'
- assert 0
-
-
-class XmlTokenizer:
- """Expat based XML tokenizer."""
-
- def __init__(self, fp, skip_ws = True):
- self.fp = fp
- self.tokens = []
- self.index = 0
- self.final = False
- self.skip_ws = skip_ws
-
- self.character_pos = 0, 0
- self.character_data = ''
-
- self.parser = xml.parsers.expat.ParserCreate()
- self.parser.StartElementHandler = self.handle_element_start
- self.parser.EndElementHandler = self.handle_element_end
- self.parser.CharacterDataHandler = self.handle_character_data
-
- def handle_element_start(self, name, attributes):
- self.finish_character_data()
- line, column = self.pos()
- token = XmlToken(XML_ELEMENT_START, name, attributes, line, column)
- self.tokens.append(token)
-
- def handle_element_end(self, name):
- self.finish_character_data()
- line, column = self.pos()
- token = XmlToken(XML_ELEMENT_END, name, None, line, column)
- self.tokens.append(token)
-
- def handle_character_data(self, data):
- if not self.character_data:
- self.character_pos = self.pos()
- self.character_data += data
-
- def finish_character_data(self):
- if self.character_data:
- if not self.skip_ws or not self.character_data.isspace():
- line, column = self.character_pos
- token = XmlToken(XML_CHARACTER_DATA, self.character_data, None, line, column)
- self.tokens.append(token)
- self.character_data = ''
-
- def next(self):
- size = 16*1024
- while self.index >= len(self.tokens) and not self.final:
- self.tokens = []
- self.index = 0
- data = self.fp.read(size)
- self.final = len(data) < size
- try:
- self.parser.Parse(data, self.final)
- except xml.parsers.expat.ExpatError, e:
- #if e.code == xml.parsers.expat.errors.XML_ERROR_NO_ELEMENTS:
- if e.code == 3:
- pass
- else:
- raise e
- if self.index >= len(self.tokens):
- line, column = self.pos()
- token = XmlToken(XML_EOF, None, None, line, column)
- else:
- token = self.tokens[self.index]
- self.index += 1
- return token
-
- def pos(self):
- return self.parser.CurrentLineNumber, self.parser.CurrentColumnNumber
-
-
-class XmlTokenMismatch(Exception):
-
- def __init__(self, expected, found):
- self.expected = expected
- self.found = found
-
- def __str__(self):
- return '%u:%u: %s expected, %s found' % (self.found.line, self.found.column, str(self.expected), str(self.found))
-
-
-class XmlParser(Parser):
- """Base XML document parser."""
-
- def __init__(self, fp):
- Parser.__init__(self)
- self.tokenizer = XmlTokenizer(fp)
- self.consume()
-
- def consume(self):
- self.token = self.tokenizer.next()
-
- def match_element_start(self, name):
- return self.token.type == XML_ELEMENT_START and self.token.name_or_data == name
-
- def match_element_end(self, name):
- return self.token.type == XML_ELEMENT_END and self.token.name_or_data == name
-
- def element_start(self, name):
- while self.token.type == XML_CHARACTER_DATA:
- self.consume()
- if self.token.type != XML_ELEMENT_START:
- raise XmlTokenMismatch(XmlToken(XML_ELEMENT_START, name), self.token)
- if self.token.name_or_data != name:
- raise XmlTokenMismatch(XmlToken(XML_ELEMENT_START, name), self.token)
- attrs = self.token.attrs
- self.consume()
- return attrs
-
- def element_end(self, name):
- while self.token.type == XML_CHARACTER_DATA:
- self.consume()
- if self.token.type != XML_ELEMENT_END:
- raise XmlTokenMismatch(XmlToken(XML_ELEMENT_END, name), self.token)
- if self.token.name_or_data != name:
- raise XmlTokenMismatch(XmlToken(XML_ELEMENT_END, name), self.token)
- self.consume()
-
- def character_data(self, strip = True):
- data = ''
- while self.token.type == XML_CHARACTER_DATA:
- data += self.token.name_or_data
- self.consume()
- if strip:
- data = data.strip()
- return data
-
-
-class GprofParser(Parser):
- """Parser for GNU gprof output.
-
- See also:
- - Chapter "Interpreting gprof's Output" from the GNU gprof manual
- http://sourceware.org/binutils/docs-2.18/gprof/Call-Graph.html#Call-Graph
- - File "cg_print.c" from the GNU gprof source code
- http://sourceware.org/cgi-bin/cvsweb.cgi/~checkout~/src/gprof/cg_print.c?rev=1.12&cvsroot=src
- """
-
- def __init__(self, fp):
- Parser.__init__(self)
- self.fp = fp
- self.functions = {}
- self.cycles = {}
-
- def readline(self):
- line = self.fp.readline()
- if not line:
- sys.stderr.write('error: unexpected end of file\n')
- sys.exit(1)
- line = line.rstrip('\r\n')
- return line
-
- _int_re = re.compile(r'^\d+$')
- _float_re = re.compile(r'^\d+\.\d+$')
-
- def translate(self, mo):
- """Extract a structure from a match object, while translating the types in the process."""
- attrs = {}
- groupdict = mo.groupdict()
- for name, value in groupdict.iteritems():
- if value is None:
- value = None
- elif self._int_re.match(value):
- value = int(value)
- elif self._float_re.match(value):
- value = float(value)
- attrs[name] = (value)
- return Struct(attrs)
-
- _cg_header_re = re.compile(
- # original gprof header
- r'^\s+called/total\s+parents\s*$|' +
- r'^index\s+%time\s+self\s+descendents\s+called\+self\s+name\s+index\s*$|' +
- r'^\s+called/total\s+children\s*$|' +
- # GNU gprof header
- r'^index\s+%\s+time\s+self\s+children\s+called\s+name\s*$'
- )
-
- _cg_ignore_re = re.compile(
- # spontaneous
- r'^\s+\s*$|'
- # internal calls (such as "mcount")
- r'^.*\((\d+)\)$'
- )
-
- _cg_primary_re = re.compile(
- r'^\[(?P\d+)\]?' +
- r'\s+(?P\d+\.\d+)' +
- r'\s+(?P\d+\.\d+)' +
- r'\s+(?P\d+\.\d+)' +
- r'\s+(?:(?P\d+)(?:\+(?P\d+))?)?' +
- r'\s+(?P\S.*?)' +
- r'(?:\s+\d+)>)?' +
- r'\s\[(\d+)\]$'
- )
-
- _cg_parent_re = re.compile(
- r'^\s+(?P\d+\.\d+)?' +
- r'\s+(?P\d+\.\d+)?' +
- r'\s+(?P\d+)(?:/(?P\d+))?' +
- r'\s+(?P\S.*?)' +
- r'(?:\s+\d+)>)?' +
- r'\s\[(?P\d+)\]$'
- )
-
- _cg_child_re = _cg_parent_re
-
- _cg_cycle_header_re = re.compile(
- r'^\[(?P\d+)\]?' +
- r'\s+(?P\d+\.\d+)' +
- r'\s+(?P\d+\.\d+)' +
- r'\s+(?P\d+\.\d+)' +
- r'\s+(?:(?P\d+)(?:\+(?P\d+))?)?' +
- r'\s+\d+)\sas\sa\swhole>' +
- r'\s\[(\d+)\]$'
- )
-
- _cg_cycle_member_re = re.compile(
- r'^\s+(?P\d+\.\d+)?' +
- r'\s+(?P\d+\.\d+)?' +
- r'\s+(?P\d+)(?:\+(?P\d+))?' +
- r'\s+(?P\S.*?)' +
- r'(?:\s+\d+)>)?' +
- r'\s\[(?P\d+)\]$'
- )
-
- _cg_sep_re = re.compile(r'^--+$')
-
- def parse_function_entry(self, lines):
- parents = []
- children = []
-
- while True:
- if not lines:
- sys.stderr.write('warning: unexpected end of entry\n')
- line = lines.pop(0)
- if line.startswith('['):
- break
-
- # read function parent line
- mo = self._cg_parent_re.match(line)
- if not mo:
- if self._cg_ignore_re.match(line):
- continue
- sys.stderr.write('warning: unrecognized call graph entry: %r\n' % line)
- else:
- parent = self.translate(mo)
- parents.append(parent)
-
- # read primary line
- mo = self._cg_primary_re.match(line)
- if not mo:
- sys.stderr.write('warning: unrecognized call graph entry: %r\n' % line)
- return
- else:
- function = self.translate(mo)
-
- while lines:
- line = lines.pop(0)
-
- # read function subroutine line
- mo = self._cg_child_re.match(line)
- if not mo:
- if self._cg_ignore_re.match(line):
- continue
- sys.stderr.write('warning: unrecognized call graph entry: %r\n' % line)
- else:
- child = self.translate(mo)
- children.append(child)
-
- function.parents = parents
- function.children = children
-
- self.functions[function.index] = function
-
- def parse_cycle_entry(self, lines):
-
- # read cycle header line
- line = lines[0]
- mo = self._cg_cycle_header_re.match(line)
- if not mo:
- sys.stderr.write('warning: unrecognized call graph entry: %r\n' % line)
- return
- cycle = self.translate(mo)
-
- # read cycle member lines
- cycle.functions = []
- for line in lines[1:]:
- mo = self._cg_cycle_member_re.match(line)
- if not mo:
- sys.stderr.write('warning: unrecognized call graph entry: %r\n' % line)
- continue
- call = self.translate(mo)
- cycle.functions.append(call)
-
- self.cycles[cycle.cycle] = cycle
-
- def parse_cg_entry(self, lines):
- if lines[0].startswith("["):
- self.parse_cycle_entry(lines)
- else:
- self.parse_function_entry(lines)
-
- def parse_cg(self):
- """Parse the call graph."""
-
- # skip call graph header
- while not self._cg_header_re.match(self.readline()):
- pass
- line = self.readline()
- while self._cg_header_re.match(line):
- line = self.readline()
-
- # process call graph entries
- entry_lines = []
- while line != '\014': # form feed
- if line and not line.isspace():
- if self._cg_sep_re.match(line):
- self.parse_cg_entry(entry_lines)
- entry_lines = []
- else:
- entry_lines.append(line)
- line = self.readline()
-
- def parse(self):
- self.parse_cg()
- self.fp.close()
-
- profile = Profile()
- profile[TIME] = 0.0
-
- cycles = {}
- for index in self.cycles.iterkeys():
- cycles[index] = Cycle()
-
- for entry in self.functions.itervalues():
- # populate the function
- function = Function(entry.index, entry.name)
- function[TIME] = entry.self
- if entry.called is not None:
- function[CALLS] = entry.called
- if entry.called_self is not None:
- call = Call(entry.index)
- call[CALLS] = entry.called_self
- function[CALLS] += entry.called_self
-
- # populate the function calls
- for child in entry.children:
- call = Call(child.index)
-
- assert child.called is not None
- call[CALLS] = child.called
-
- if child.index not in self.functions:
- # NOTE: functions that were never called but were discovered by gprof's
- # static call graph analysis dont have a call graph entry so we need
- # to add them here
- missing = Function(child.index, child.name)
- function[TIME] = 0.0
- function[CALLS] = 0
- profile.add_function(missing)
-
- function.add_call(call)
-
- profile.add_function(function)
-
- if entry.cycle is not None:
- try:
- cycle = cycles[entry.cycle]
- except KeyError:
- sys.stderr.write('warning: entry missing\n' % entry.cycle)
- cycle = Cycle()
- cycles[entry.cycle] = cycle
- cycle.add_function(function)
-
- profile[TIME] = profile[TIME] + function[TIME]
-
- for cycle in cycles.itervalues():
- profile.add_cycle(cycle)
-
- # Compute derived events
- profile.validate()
- profile.ratio(TIME_RATIO, TIME)
- profile.call_ratios(CALLS)
- profile.integrate(TOTAL_TIME, TIME)
- profile.ratio(TOTAL_TIME_RATIO, TOTAL_TIME)
-
- return profile
-
-
-class OprofileParser(LineParser):
- """Parser for oprofile callgraph output.
-
- See also:
- - http://oprofile.sourceforge.net/doc/opreport.html#opreport-callgraph
- """
-
- _fields_re = {
- 'samples': r'(?P\d+)',
- '%': r'(?P\S+)',
- 'linenr info': r'(?P\(no location information\)|\S+:\d+)',
- 'image name': r'(?P\S+(?:\s\(tgid:[^)]*\))?)',
- 'app name': r'(?P\S+)',
- 'symbol name': r'(?P\(no symbols\)|.+?)',
- }
-
- def __init__(self, infile):
- LineParser.__init__(self, infile)
- self.entries = {}
- self.entry_re = None
-
- def add_entry(self, callers, function, callees):
- try:
- entry = self.entries[function.id]
- except KeyError:
- self.entries[function.id] = (callers, function, callees)
- else:
- callers_total, function_total, callees_total = entry
- self.update_subentries_dict(callers_total, callers)
- function_total.samples += function.samples
- self.update_subentries_dict(callees_total, callees)
-
- def update_subentries_dict(self, totals, partials):
- for partial in partials.itervalues():
- try:
- total = totals[partial.id]
- except KeyError:
- totals[partial.id] = partial
- else:
- total.samples += partial.samples
-
- def parse(self):
- # read lookahead
- self.readline()
-
- self.parse_header()
- while self.lookahead():
- self.parse_entry()
-
- profile = Profile()
-
- reverse_call_samples = {}
-
- # populate the profile
- profile[SAMPLES] = 0
- for _callers, _function, _callees in self.entries.itervalues():
- function = Function(_function.id, _function.name)
- function[SAMPLES] = _function.samples
- profile.add_function(function)
- profile[SAMPLES] += _function.samples
-
- if _function.application:
- function[PROCESS] = os.path.basename(_function.application)
- if _function.image:
- function[MODULE] = os.path.basename(_function.image)
-
- total_callee_samples = 0
- for _callee in _callees.itervalues():
- total_callee_samples += _callee.samples
-
- for _callee in _callees.itervalues():
- if not _callee.self:
- call = Call(_callee.id)
- call[SAMPLES2] = _callee.samples
- function.add_call(call)
-
- # compute derived data
- profile.validate()
- profile.find_cycles()
- profile.ratio(TIME_RATIO, SAMPLES)
- profile.call_ratios(SAMPLES2)
- profile.integrate(TOTAL_TIME_RATIO, TIME_RATIO)
-
- return profile
-
- def parse_header(self):
- while not self.match_header():
- self.consume()
- line = self.lookahead()
- fields = re.split(r'\s\s+', line)
- entry_re = r'^\s*' + r'\s+'.join([self._fields_re[field] for field in fields]) + r'(?P\s+\[self\])?$'
- self.entry_re = re.compile(entry_re)
- self.skip_separator()
-
- def parse_entry(self):
- callers = self.parse_subentries()
- if self.match_primary():
- function = self.parse_subentry()
- if function is not None:
- callees = self.parse_subentries()
- self.add_entry(callers, function, callees)
- self.skip_separator()
-
- def parse_subentries(self):
- subentries = {}
- while self.match_secondary():
- subentry = self.parse_subentry()
- subentries[subentry.id] = subentry
- return subentries
-
- def parse_subentry(self):
- entry = Struct()
- line = self.consume()
- mo = self.entry_re.match(line)
- if not mo:
- raise ParseError('failed to parse', line)
- fields = mo.groupdict()
- entry.samples = int(fields.get('samples', 0))
- entry.percentage = float(fields.get('percentage', 0.0))
- if 'source' in fields and fields['source'] != '(no location information)':
- source = fields['source']
- filename, lineno = source.split(':')
- entry.filename = filename
- entry.lineno = int(lineno)
- else:
- source = ''
- entry.filename = None
- entry.lineno = None
- entry.image = fields.get('image', '')
- entry.application = fields.get('application', '')
- if 'symbol' in fields and fields['symbol'] != '(no symbols)':
- entry.symbol = fields['symbol']
- else:
- entry.symbol = ''
- if entry.symbol.startswith('"') and entry.symbol.endswith('"'):
- entry.symbol = entry.symbol[1:-1]
- entry.id = ':'.join((entry.application, entry.image, source, entry.symbol))
- entry.self = fields.get('self', None) != None
- if entry.self:
- entry.id += ':self'
- if entry.symbol:
- entry.name = entry.symbol
- else:
- entry.name = entry.image
- return entry
-
- def skip_separator(self):
- while not self.match_separator():
- self.consume()
- self.consume()
-
- def match_header(self):
- line = self.lookahead()
- return line.startswith('samples')
-
- def match_separator(self):
- line = self.lookahead()
- return line == '-'*len(line)
-
- def match_primary(self):
- line = self.lookahead()
- return not line[:1].isspace()
-
- def match_secondary(self):
- line = self.lookahead()
- return line[:1].isspace()
-
-
-class SysprofParser(XmlParser):
-
- def __init__(self, stream):
- XmlParser.__init__(self, stream)
-
- def parse(self):
- objects = {}
- nodes = {}
-
- self.element_start('profile')
- while self.token.type == XML_ELEMENT_START:
- if self.token.name_or_data == 'objects':
- assert not objects
- objects = self.parse_items('objects')
- elif self.token.name_or_data == 'nodes':
- assert not nodes
- nodes = self.parse_items('nodes')
- else:
- self.parse_value(self.token.name_or_data)
- self.element_end('profile')
-
- return self.build_profile(objects, nodes)
-
- def parse_items(self, name):
- assert name[-1] == 's'
- items = {}
- self.element_start(name)
- while self.token.type == XML_ELEMENT_START:
- id, values = self.parse_item(name[:-1])
- assert id not in items
- items[id] = values
- self.element_end(name)
- return items
-
- def parse_item(self, name):
- attrs = self.element_start(name)
- id = int(attrs['id'])
- values = self.parse_values()
- self.element_end(name)
- return id, values
-
- def parse_values(self):
- values = {}
- while self.token.type == XML_ELEMENT_START:
- name = self.token.name_or_data
- value = self.parse_value(name)
- assert name not in values
- values[name] = value
- return values
-
- def parse_value(self, tag):
- self.element_start(tag)
- value = self.character_data()
- self.element_end(tag)
- if value.isdigit():
- return int(value)
- if value.startswith('"') and value.endswith('"'):
- return value[1:-1]
- return value
-
- def build_profile(self, objects, nodes):
- profile = Profile()
-
- profile[SAMPLES] = 0
- for id, object in objects.iteritems():
- # Ignore fake objects (process names, modules, "Everything", "kernel", etc.)
- if object['self'] == 0:
- continue
-
- function = Function(id, object['name'])
- function[SAMPLES] = object['self']
- profile.add_function(function)
- profile[SAMPLES] += function[SAMPLES]
-
- for id, node in nodes.iteritems():
- # Ignore fake calls
- if node['self'] == 0:
- continue
-
- # Find a non-ignored parent
- parent_id = node['parent']
- while parent_id != 0:
- parent = nodes[parent_id]
- caller_id = parent['object']
- if objects[caller_id]['self'] != 0:
- break
- parent_id = parent['parent']
- if parent_id == 0:
- continue
-
- callee_id = node['object']
-
- assert objects[caller_id]['self']
- assert objects[callee_id]['self']
-
- function = profile.functions[caller_id]
-
- samples = node['self']
- try:
- call = function.calls[callee_id]
- except KeyError:
- call = Call(callee_id)
- call[SAMPLES2] = samples
- function.add_call(call)
- else:
- call[SAMPLES2] += samples
-
- # Compute derived events
- profile.validate()
- profile.find_cycles()
- profile.ratio(TIME_RATIO, SAMPLES)
- profile.call_ratios(SAMPLES2)
- profile.integrate(TOTAL_TIME_RATIO, TIME_RATIO)
-
- return profile
-
-
-class SharkParser(LineParser):
- """Parser for MacOSX Shark output.
-
- Author: tom@dbservice.com
- """
-
- def __init__(self, infile):
- LineParser.__init__(self, infile)
- self.stack = []
- self.entries = {}
-
- def add_entry(self, function):
- try:
- entry = self.entries[function.id]
- except KeyError:
- self.entries[function.id] = (function, { })
- else:
- function_total, callees_total = entry
- function_total.samples += function.samples
-
- def add_callee(self, function, callee):
- func, callees = self.entries[function.id]
- try:
- entry = callees[callee.id]
- except KeyError:
- callees[callee.id] = callee
- else:
- entry.samples += callee.samples
-
- def parse(self):
- self.readline()
- self.readline()
- self.readline()
- self.readline()
-
- match = re.compile(r'(?P[|+ ]*)(?P\d+), (?P[^,]+), (?P.*)')
-
- while self.lookahead():
- line = self.consume()
- mo = match.match(line)
- if not mo:
- raise ParseError('failed to parse', line)
-
- fields = mo.groupdict()
- prefix = len(fields.get('prefix', 0)) / 2 - 1
-
- symbol = str(fields.get('symbol', 0))
- image = str(fields.get('image', 0))
-
- entry = Struct()
- entry.id = ':'.join([symbol, image])
- entry.samples = int(fields.get('samples', 0))
-
- entry.name = symbol
- entry.image = image
-
- # adjust the callstack
- if prefix < len(self.stack):
- del self.stack[prefix:]
-
- if prefix == len(self.stack):
- self.stack.append(entry)
-
- # if the callstack has had an entry, it's this functions caller
- if prefix > 0:
- self.add_callee(self.stack[prefix - 1], entry)
-
- self.add_entry(entry)
-
- profile = Profile()
- profile[SAMPLES] = 0
- for _function, _callees in self.entries.itervalues():
- function = Function(_function.id, _function.name)
- function[SAMPLES] = _function.samples
- profile.add_function(function)
- profile[SAMPLES] += _function.samples
-
- if _function.image:
- function[MODULE] = os.path.basename(_function.image)
-
- for _callee in _callees.itervalues():
- call = Call(_callee.id)
- call[SAMPLES] = _callee.samples
- function.add_call(call)
-
- # compute derived data
- profile.validate()
- profile.find_cycles()
- profile.ratio(TIME_RATIO, SAMPLES)
- profile.call_ratios(SAMPLES)
- profile.integrate(TOTAL_TIME_RATIO, TIME_RATIO)
-
- return profile
-
-
-class SleepyParser(Parser):
- """Parser for GNU gprof output.
-
- See also:
- - http://www.codersnotes.com/sleepy/
- - http://sleepygraph.sourceforge.net/
- """
-
- def __init__(self, filename):
- Parser.__init__(self)
-
- from zipfile import ZipFile
-
- self.database = ZipFile(filename)
-
- self.symbols = {}
- self.calls = {}
-
- self.profile = Profile()
-
- _symbol_re = re.compile(
- r'^(?P\w+)' +
- r'\s+"(?P[^"]*)"' +
- r'\s+"(?P[^"]*)"' +
- r'\s+"(?P[^"]*)"' +
- r'\s+(?P\d+)$'
- )
-
- def parse_symbols(self):
- lines = self.database.read('symbols.txt').splitlines()
- for line in lines:
- mo = self._symbol_re.match(line)
- if mo:
- symbol_id, module, procname, sourcefile, sourceline = mo.groups()
-
- function_id = ':'.join([module, procname])
-
- try:
- function = self.profile.functions[function_id]
- except KeyError:
- function = Function(function_id, procname)
- function[SAMPLES] = 0
- self.profile.add_function(function)
-
- self.symbols[symbol_id] = function
-
- def parse_callstacks(self):
- lines = self.database.read("callstacks.txt").splitlines()
- for line in lines:
- fields = line.split()
- samples = int(fields[0])
- callstack = fields[1:]
-
- callstack = [self.symbols[symbol_id] for symbol_id in callstack]
-
- callee = callstack[0]
-
- callee[SAMPLES] += samples
- self.profile[SAMPLES] += samples
-
- for caller in callstack[1:]:
- try:
- call = caller.calls[callee.id]
- except KeyError:
- call = Call(callee.id)
- call[SAMPLES2] = samples
- caller.add_call(call)
- else:
- call[SAMPLES2] += samples
-
- callee = caller
-
- def parse(self):
- profile = self.profile
- profile[SAMPLES] = 0
-
- self.parse_symbols()
- self.parse_callstacks()
-
- # Compute derived events
- profile.validate()
- profile.find_cycles()
- profile.ratio(TIME_RATIO, SAMPLES)
- profile.call_ratios(SAMPLES2)
- profile.integrate(TOTAL_TIME_RATIO, TIME_RATIO)
-
- return profile
-
-
-class AQtimeTable:
-
- def __init__(self, name, fields):
- self.name = name
-
- self.fields = fields
- self.field_column = {}
- for column in range(len(fields)):
- self.field_column[fields[column]] = column
- self.rows = []
-
- def __len__(self):
- return len(self.rows)
-
- def __iter__(self):
- for values, children in self.rows:
- fields = {}
- for name, value in zip(self.fields, values):
- fields[name] = value
- children = dict([(child.name, child) for child in children])
- yield fields, children
- raise StopIteration
-
- def add_row(self, values, children=()):
- self.rows.append((values, children))
-
-
-class AQtimeParser(XmlParser):
-
- def __init__(self, stream):
- XmlParser.__init__(self, stream)
- self.tables = {}
-
- def parse(self):
- self.element_start('AQtime_Results')
- self.parse_headers()
- results = self.parse_results()
- self.element_end('AQtime_Results')
- return self.build_profile(results)
-
- def parse_headers(self):
- self.element_start('HEADERS')
- while self.token.type == XML_ELEMENT_START:
- self.parse_table_header()
- self.element_end('HEADERS')
-
- def parse_table_header(self):
- attrs = self.element_start('TABLE_HEADER')
- name = attrs['NAME']
- id = int(attrs['ID'])
- field_types = []
- field_names = []
- while self.token.type == XML_ELEMENT_START:
- field_type, field_name = self.parse_table_field()
- field_types.append(field_type)
- field_names.append(field_name)
- self.element_end('TABLE_HEADER')
- self.tables[id] = name, field_types, field_names
-
- def parse_table_field(self):
- attrs = self.element_start('TABLE_FIELD')
- type = attrs['TYPE']
- name = self.character_data()
- self.element_end('TABLE_FIELD')
- return type, name
-
- def parse_results(self):
- self.element_start('RESULTS')
- table = self.parse_data()
- self.element_end('RESULTS')
- return table
-
- def parse_data(self):
- rows = []
- attrs = self.element_start('DATA')
- table_id = int(attrs['TABLE_ID'])
- table_name, field_types, field_names = self.tables[table_id]
- table = AQtimeTable(table_name, field_names)
- while self.token.type == XML_ELEMENT_START:
- row, children = self.parse_row(field_types)
- table.add_row(row, children)
- self.element_end('DATA')
- return table
-
- def parse_row(self, field_types):
- row = [None]*len(field_types)
- children = []
- self.element_start('ROW')
- while self.token.type == XML_ELEMENT_START:
- if self.token.name_or_data == 'FIELD':
- field_id, field_value = self.parse_field(field_types)
- row[field_id] = field_value
- elif self.token.name_or_data == 'CHILDREN':
- children = self.parse_children()
- else:
- raise XmlTokenMismatch(" or ", self.token)
- self.element_end('ROW')
- return row, children
-
- def parse_field(self, field_types):
- attrs = self.element_start('FIELD')
- id = int(attrs['ID'])
- type = field_types[id]
- value = self.character_data()
- if type == 'Integer':
- value = int(value)
- elif type == 'Float':
- value = float(value)
- elif type == 'Address':
- value = int(value)
- elif type == 'String':
- pass
- else:
- assert False
- self.element_end('FIELD')
- return id, value
-
- def parse_children(self):
- children = []
- self.element_start('CHILDREN')
- while self.token.type == XML_ELEMENT_START:
- table = self.parse_data()
- assert table.name not in children
- children.append(table)
- self.element_end('CHILDREN')
- return children
-
- def build_profile(self, results):
- assert results.name == 'Routines'
- profile = Profile()
- profile[TIME] = 0.0
- for fields, tables in results:
- function = self.build_function(fields)
- children = tables['Children']
- for fields, _ in children:
- call = self.build_call(fields)
- function.add_call(call)
- profile.add_function(function)
- profile[TIME] = profile[TIME] + function[TIME]
- profile[TOTAL_TIME] = profile[TIME]
- profile.ratio(TOTAL_TIME_RATIO, TOTAL_TIME)
- return profile
-
- def build_function(self, fields):
- function = Function(self.build_id(fields), self.build_name(fields))
- function[TIME] = fields['Time']
- function[TOTAL_TIME] = fields['Time with Children']
- #function[TIME_RATIO] = fields['% Time']/100.0
- #function[TOTAL_TIME_RATIO] = fields['% with Children']/100.0
- return function
-
- def build_call(self, fields):
- call = Call(self.build_id(fields))
- call[TIME] = fields['Time']
- call[TOTAL_TIME] = fields['Time with Children']
- #call[TIME_RATIO] = fields['% Time']/100.0
- #call[TOTAL_TIME_RATIO] = fields['% with Children']/100.0
- return call
-
- def build_id(self, fields):
- return ':'.join([fields['Module Name'], fields['Unit Name'], fields['Routine Name']])
-
- def build_name(self, fields):
- # TODO: use more fields
- return fields['Routine Name']
-
-
-class PstatsParser:
- """Parser python profiling statistics saved with te pstats module."""
-
- def __init__(self, *filename):
- import pstats
- try:
- self.stats = pstats.Stats(*filename)
- except ValueError:
- import hotshot.stats
- self.stats = hotshot.stats.load(filename[0])
- self.profile = Profile()
- self.function_ids = {}
-
- def get_function_name(self, (filename, line, name)):
- module = os.path.splitext(filename)[0]
- module = os.path.basename(module)
- return "%s:%d:%s" % (module, line, name)
-
- def get_function(self, key):
- try:
- id = self.function_ids[key]
- except KeyError:
- id = len(self.function_ids)
- name = self.get_function_name(key)
- function = Function(id, name)
- self.profile.functions[id] = function
- self.function_ids[key] = id
- else:
- function = self.profile.functions[id]
- return function
-
- def parse(self):
- self.profile[TIME] = 0.0
- self.profile[TOTAL_TIME] = self.stats.total_tt
- for fn, (cc, nc, tt, ct, callers) in self.stats.stats.iteritems():
- callee = self.get_function(fn)
- callee[CALLS] = nc
- callee[TOTAL_TIME] = ct
- callee[TIME] = tt
- self.profile[TIME] += tt
- self.profile[TOTAL_TIME] = max(self.profile[TOTAL_TIME], ct)
- for fn, value in callers.iteritems():
- caller = self.get_function(fn)
- call = Call(callee.id)
- if isinstance(value, tuple):
- for i in xrange(0, len(value), 4):
- nc, cc, tt, ct = value[i:i+4]
- if CALLS in call:
- call[CALLS] += cc
- else:
- call[CALLS] = cc
-
- if TOTAL_TIME in call:
- call[TOTAL_TIME] += ct
- else:
- call[TOTAL_TIME] = ct
-
- else:
- call[CALLS] = value
- call[TOTAL_TIME] = ratio(value, nc)*ct
-
- caller.add_call(call)
- #self.stats.print_stats()
- #self.stats.print_callees()
-
- # Compute derived events
- self.profile.validate()
- self.profile.ratio(TIME_RATIO, TIME)
- self.profile.ratio(TOTAL_TIME_RATIO, TOTAL_TIME)
-
- return self.profile
-
-
-class Theme:
-
- def __init__(self,
- bgcolor = (0.0, 0.0, 1.0),
- mincolor = (0.0, 0.0, 0.0),
- maxcolor = (0.0, 0.0, 1.0),
- fontname = "Arial",
- minfontsize = 10.0,
- maxfontsize = 10.0,
- minpenwidth = 0.5,
- maxpenwidth = 4.0,
- gamma = 2.2,
- skew = 1.0):
- self.bgcolor = bgcolor
- self.mincolor = mincolor
- self.maxcolor = maxcolor
- self.fontname = fontname
- self.minfontsize = minfontsize
- self.maxfontsize = maxfontsize
- self.minpenwidth = minpenwidth
- self.maxpenwidth = maxpenwidth
- self.gamma = gamma
- self.skew = skew
-
- def graph_bgcolor(self):
- return self.hsl_to_rgb(*self.bgcolor)
-
- def graph_fontname(self):
- return self.fontname
-
- def graph_fontsize(self):
- return self.minfontsize
-
- def node_bgcolor(self, weight):
- return self.color(weight)
-
- def node_fgcolor(self, weight):
- return self.graph_bgcolor()
-
- def node_fontsize(self, weight):
- return self.fontsize(weight)
-
- def edge_color(self, weight):
- return self.color(weight)
-
- def edge_fontsize(self, weight):
- return self.fontsize(weight)
-
- def edge_penwidth(self, weight):
- return max(weight*self.maxpenwidth, self.minpenwidth)
-
- def edge_arrowsize(self, weight):
- return 0.5 * math.sqrt(self.edge_penwidth(weight))
-
- def fontsize(self, weight):
- return max(weight**2 * self.maxfontsize, self.minfontsize)
-
- def color(self, weight):
- weight = min(max(weight, 0.0), 1.0)
-
- hmin, smin, lmin = self.mincolor
- hmax, smax, lmax = self.maxcolor
-
- if self.skew < 0:
- raise ValueError("Skew must be greater than 0")
- elif self.skew == 1.0:
- h = hmin + weight*(hmax - hmin)
- s = smin + weight*(smax - smin)
- l = lmin + weight*(lmax - lmin)
- else:
- base = self.skew
- h = hmin + ((hmax-hmin)*(-1.0 + (base ** weight)) / (base - 1.0))
- s = smin + ((smax-smin)*(-1.0 + (base ** weight)) / (base - 1.0))
- l = lmin + ((lmax-lmin)*(-1.0 + (base ** weight)) / (base - 1.0))
-
- return self.hsl_to_rgb(h, s, l)
-
- def hsl_to_rgb(self, h, s, l):
- """Convert a color from HSL color-model to RGB.
-
- See also:
- - http://www.w3.org/TR/css3-color/#hsl-color
- """
-
- h = h % 1.0
- s = min(max(s, 0.0), 1.0)
- l = min(max(l, 0.0), 1.0)
-
- if l <= 0.5:
- m2 = l*(s + 1.0)
- else:
- m2 = l + s - l*s
- m1 = l*2.0 - m2
- r = self._hue_to_rgb(m1, m2, h + 1.0/3.0)
- g = self._hue_to_rgb(m1, m2, h)
- b = self._hue_to_rgb(m1, m2, h - 1.0/3.0)
-
- # Apply gamma correction
- r **= self.gamma
- g **= self.gamma
- b **= self.gamma
-
- return (r, g, b)
-
- def _hue_to_rgb(self, m1, m2, h):
- if h < 0.0:
- h += 1.0
- elif h > 1.0:
- h -= 1.0
- if h*6 < 1.0:
- return m1 + (m2 - m1)*h*6.0
- elif h*2 < 1.0:
- return m2
- elif h*3 < 2.0:
- return m1 + (m2 - m1)*(2.0/3.0 - h)*6.0
- else:
- return m1
-
-
-TEMPERATURE_COLORMAP = Theme(
- mincolor = (2.0/3.0, 0.80, 0.25), # dark blue
- maxcolor = (0.0, 1.0, 0.5), # satured red
- gamma = 1.0
-)
-
-PINK_COLORMAP = Theme(
- mincolor = (0.0, 1.0, 0.90), # pink
- maxcolor = (0.0, 1.0, 0.5), # satured red
-)
-
-GRAY_COLORMAP = Theme(
- mincolor = (0.0, 0.0, 0.85), # light gray
- maxcolor = (0.0, 0.0, 0.0), # black
-)
-
-BW_COLORMAP = Theme(
- minfontsize = 8.0,
- maxfontsize = 24.0,
- mincolor = (0.0, 0.0, 0.0), # black
- maxcolor = (0.0, 0.0, 0.0), # black
- minpenwidth = 0.1,
- maxpenwidth = 8.0,
-)
-
-
-class DotWriter:
- """Writer for the DOT language.
-
- See also:
- - "The DOT Language" specification
- http://www.graphviz.org/doc/info/lang.html
- """
-
- def __init__(self, fp):
- self.fp = fp
-
- def graph(self, profile, theme):
- self.begin_graph()
-
- fontname = theme.graph_fontname()
-
- self.attr('graph', fontname=fontname, ranksep=0.25, nodesep=0.125)
- self.attr('node', fontname=fontname, shape="box", style="filled", fontcolor="white", width=0, height=0)
- self.attr('edge', fontname=fontname)
-
- for function in profile.functions.itervalues():
- labels = []
- for event in PROCESS, MODULE:
- if event in function.events:
- label = event.format(function[event])
- labels.append(label)
- labels.append(function.name)
- for event in TOTAL_TIME_RATIO, TIME_RATIO, CALLS:
- if event in function.events:
- label = event.format(function[event])
- labels.append(label)
-
- try:
- weight = function[PRUNE_RATIO]
- except UndefinedEvent:
- weight = 0.0
-
- label = '\n'.join(labels)
- self.node(function.id,
- label = label,
- color = self.color(theme.node_bgcolor(weight)),
- fontcolor = self.color(theme.node_fgcolor(weight)),
- fontsize = "%.2f" % theme.node_fontsize(weight),
- )
-
- for call in function.calls.itervalues():
- callee = profile.functions[call.callee_id]
-
- labels = []
- for event in TOTAL_TIME_RATIO, CALLS:
- if event in call.events:
- label = event.format(call[event])
- labels.append(label)
-
- try:
- weight = call[PRUNE_RATIO]
- except UndefinedEvent:
- try:
- weight = callee[PRUNE_RATIO]
- except UndefinedEvent:
- weight = 0.0
-
- label = '\n'.join(labels)
-
- self.edge(function.id, call.callee_id,
- label = label,
- color = self.color(theme.edge_color(weight)),
- fontcolor = self.color(theme.edge_color(weight)),
- fontsize = "%.2f" % theme.edge_fontsize(weight),
- penwidth = "%.2f" % theme.edge_penwidth(weight),
- labeldistance = "%.2f" % theme.edge_penwidth(weight),
- arrowsize = "%.2f" % theme.edge_arrowsize(weight),
- )
-
- self.end_graph()
-
- def begin_graph(self):
- self.write('digraph {\n')
-
- def end_graph(self):
- self.write('}\n')
-
- def attr(self, what, **attrs):
- self.write("\t")
- self.write(what)
- self.attr_list(attrs)
- self.write(";\n")
-
- def node(self, node, **attrs):
- self.write("\t")
- self.id(node)
- self.attr_list(attrs)
- self.write(";\n")
-
- def edge(self, src, dst, **attrs):
- self.write("\t")
- self.id(src)
- self.write(" -> ")
- self.id(dst)
- self.attr_list(attrs)
- self.write(";\n")
-
- def attr_list(self, attrs):
- if not attrs:
- return
- self.write(' [')
- first = True
- for name, value in attrs.iteritems():
- if first:
- first = False
- else:
- self.write(", ")
- self.id(name)
- self.write('=')
- self.id(value)
- self.write(']')
-
- def id(self, id):
- if isinstance(id, (int, float)):
- s = str(id)
- elif isinstance(id, basestring):
- if id.isalnum():
- s = id
- else:
- s = self.escape(id)
- else:
- raise TypeError
- self.write(s)
-
- def color(self, (r, g, b)):
-
- def float2int(f):
- if f <= 0.0:
- return 0
- if f >= 1.0:
- return 255
- return int(255.0*f + 0.5)
-
- return "#" + "".join(["%02x" % float2int(c) for c in (r, g, b)])
-
- def escape(self, s):
- s = s.encode('utf-8')
- s = s.replace('\\', r'\\')
- s = s.replace('\n', r'\n')
- s = s.replace('\t', r'\t')
- s = s.replace('"', r'\"')
- return '"' + s + '"'
-
- def write(self, s):
- self.fp.write(s)
-
-
-class Main:
- """Main program."""
-
- themes = {
- "color": TEMPERATURE_COLORMAP,
- "pink": PINK_COLORMAP,
- "gray": GRAY_COLORMAP,
- "bw": BW_COLORMAP,
- }
-
- def main(self):
- """Main program."""
-
- parser = optparse.OptionParser(
- usage="\n\t%prog [options] [file] ...",
- version="%%prog %s" % __version__)
- parser.add_option(
- '-o', '--output', metavar='FILE',
- type="string", dest="output",
- help="output filename [stdout]")
- parser.add_option(
- '-n', '--node-thres', metavar='PERCENTAGE',
- type="float", dest="node_thres", default=0.5,
- help="eliminate nodes below this threshold [default: %default]")
- parser.add_option(
- '-e', '--edge-thres', metavar='PERCENTAGE',
- type="float", dest="edge_thres", default=0.1,
- help="eliminate edges below this threshold [default: %default]")
- parser.add_option(
- '-f', '--format',
- type="choice", choices=('prof', 'oprofile', 'sysprof', 'pstats', 'shark', 'sleepy', 'aqtime'),
- dest="format", default="prof",
- help="profile format: prof, oprofile, sysprof, shark, sleepy, aqtime, or pstats [default: %default]")
- parser.add_option(
- '-c', '--colormap',
- type="choice", choices=('color', 'pink', 'gray', 'bw'),
- dest="theme", default="color",
- help="color map: color, pink, gray, or bw [default: %default]")
- parser.add_option(
- '-s', '--strip',
- action="store_true",
- dest="strip", default=False,
- help="strip function parameters, template parameters, and const modifiers from demangled C++ function names")
- parser.add_option(
- '-w', '--wrap',
- action="store_true",
- dest="wrap", default=False,
- help="wrap function names")
- # add a new option to control skew of the colorization curve
- parser.add_option(
- '--skew',
- type="float", dest="theme_skew", default=1.0,
- help="skew the colorization curve. Values < 1.0 give more variety to lower percentages. Value > 1.0 give less variety to lower percentages")
- (self.options, self.args) = parser.parse_args(sys.argv[1:])
-
- if len(self.args) > 1 and self.options.format != 'pstats':
- parser.error('incorrect number of arguments')
-
- try:
- self.theme = self.themes[self.options.theme]
- except KeyError:
- parser.error('invalid colormap \'%s\'' % self.options.theme)
-
- # set skew on the theme now that it has been picked.
- if self.options.theme_skew:
- self.theme.skew = self.options.theme_skew
-
- if self.options.format == 'prof':
- if not self.args:
- fp = sys.stdin
- else:
- fp = open(self.args[0], 'rt')
- parser = GprofParser(fp)
- elif self.options.format == 'oprofile':
- if not self.args:
- fp = sys.stdin
- else:
- fp = open(self.args[0], 'rt')
- parser = OprofileParser(fp)
- elif self.options.format == 'sysprof':
- if not self.args:
- fp = sys.stdin
- else:
- fp = open(self.args[0], 'rt')
- parser = SysprofParser(fp)
- elif self.options.format == 'pstats':
- if not self.args:
- parser.error('at least a file must be specified for pstats input')
- parser = PstatsParser(*self.args)
- elif self.options.format == 'shark':
- if not self.args:
- fp = sys.stdin
- else:
- fp = open(self.args[0], 'rt')
- parser = SharkParser(fp)
- elif self.options.format == 'sleepy':
- if len(self.args) != 1:
- parser.error('exactly one file must be specified for sleepy input')
- parser = SleepyParser(self.args[0])
- elif self.options.format == 'aqtime':
- if not self.args:
- fp = sys.stdin
- else:
- fp = open(self.args[0], 'rt')
- parser = AQtimeParser(fp)
- else:
- parser.error('invalid format \'%s\'' % self.options.format)
-
- self.profile = parser.parse()
-
- if self.options.output is None:
- self.output = sys.stdout
- else:
- self.output = open(self.options.output, 'wt')
-
- self.write_graph()
-
- _parenthesis_re = re.compile(r'\([^()]*\)')
- _angles_re = re.compile(r'<[^<>]*>')
- _const_re = re.compile(r'\s+const$')
-
- def strip_function_name(self, name):
- """Remove extraneous information from C++ demangled function names."""
-
- # Strip function parameters from name by recursively removing paired parenthesis
- while True:
- name, n = self._parenthesis_re.subn('', name)
- if not n:
- break
-
- # Strip const qualifier
- name = self._const_re.sub('', name)
-
- # Strip template parameters from name by recursively removing paired angles
- while True:
- name, n = self._angles_re.subn('', name)
- if not n:
- break
-
- return name
-
- def wrap_function_name(self, name):
- """Split the function name on multiple lines."""
-
- if len(name) > 32:
- ratio = 2.0/3.0
- height = max(int(len(name)/(1.0 - ratio) + 0.5), 1)
- width = max(len(name)/height, 32)
- # TODO: break lines in symbols
- name = textwrap.fill(name, width, break_long_words=False)
-
- # Take away spaces
- name = name.replace(", ", ",")
- name = name.replace("> >", ">>")
- name = name.replace("> >", ">>") # catch consecutive
-
- return name
-
- def compress_function_name(self, name):
- """Compress function name according to the user preferences."""
-
- if self.options.strip:
- name = self.strip_function_name(name)
-
- if self.options.wrap:
- name = self.wrap_function_name(name)
-
- # TODO: merge functions with same resulting name
-
- return name
-
- def write_graph(self):
- dot = DotWriter(self.output)
- profile = self.profile
- profile.prune(self.options.node_thres/100.0, self.options.edge_thres/100.0)
-
- for function in profile.functions.itervalues():
- function.name = self.compress_function_name(function.name)
-
- dot.graph(profile, self.theme)
-
-
-if __name__ == '__main__':
- Main().main()
diff --git a/trunk/3rdparty/gprof/graphviz-2.36.0.zip b/trunk/3rdparty/gprof/graphviz-2.36.0.zip
deleted file mode 100644
index d4a096043..000000000
Binary files a/trunk/3rdparty/gprof/graphviz-2.36.0.zip and /dev/null differ
diff --git a/trunk/3rdparty/gprof/readme.txt b/trunk/3rdparty/gprof/readme.txt
index 3e104a9a1..fea0fa778 100644
--- a/trunk/3rdparty/gprof/readme.txt
+++ b/trunk/3rdparty/gprof/readme.txt
@@ -1,36 +1,4 @@
-gprof图形化输出工具: gprof2dot.py graphviz-2.18.tar.gz build_gprof2dot.sh
-dot:
- http://www.graphviz.org/
- http://www.graphviz.org/Download_source.php
- graphviz-2.18.tar.gz 绘图工具
- build_gprof2dot.sh 编译graphviz,命令为dot。
- 要求是sudoer,需要sudo make install。
-
-gprof2dot.py:
- 将gprof的日志绘图。
-
-使用方法:
-0. 若需要图形化,编译dot:
- cd 3rdparty/gprof && bash build_gprof2dot.sh
-1. srs配置时:
- ./configure --with-gprof
- 脚本会加入编译参数"-pg -lc_p",gcc -g -pg -lc_p -c xxx -o xxx.o,即在configure中打开 Performance="-pg -lc_p"
- 链接时,加入链接选项"-pg",否则无法工作:gcc -pg -o srs xxxx.o,即在configure中打开 PerformanceLink="-pg"
-2. 编译和启动程序:make && ./objs/srs -c conf/srs.conf
- 退出程序,按CTRL+C,可以看到生成了gmon.out,这个就是性能的统计数据。
-3. gprof生成报表:
- gprof -b ./objs/srs gmon.out > gprof.srs.log
-4. 将报表生成图片:
- ./3rdparty/gprof/gprof2dot.py gprof.srs.log | dot -Tpng -o ~/winlin.png
+为了压缩仓库尺寸,gprof的文件不在新版本提供,可以切换到2.0分支安装:
+https://github.com/ossrs/srs/tree/2.0release/trunk/3rdparty/gprof
-缩写语句:
- # 生成 ~/winlin.log ~/winlin.png
- rm -f gmon.out; ./objs/srs -c conf/srs.conf
- # 用户按CTRL+C
- file="winlin";gprof -b ./objs/srs gmon.out > ~/${file}.log; ./3rdparty/gprof/gprof2dot.py ~/${file}.log | dot -Tpng -o ~/${file}.png
-
-备注:
- 其实gprof生成的日志就可以看,不一定要图形化。
- 也就是dot和gprof2dot都不用执行。
- 参考:http://www.cs.utah.edu/dept/old/texinfo/as/gprof.html