1# Copyright (c) 2012 ARM Limited
| 1# Copyright (c) 2017 ARM Limited
|
2# All rights reserved.
3#
4# The license below extends only to copyright in the software and shall
5# not be construed as granting a license to any other intellectual
6# property including but not limited to intellectual property relating
7# to a hardware implementation of the functionality of the software
8# licensed hereunder. You may use the software subject to the license
9# terms below provided that you ensure that this notice is replicated
10# unmodified and in its entirety in all distributions of the software,
11# modified or unmodified, in source code or in binary form.
12#
13# Copyright (c) 2004-2006 The Regents of The University of Michigan
14# Copyright (c) 2010-20013 Advanced Micro Devices, Inc.
15# Copyright (c) 2013 Mark D. Hill and David A. Wood
16# All rights reserved.
17#
18# Redistribution and use in source and binary forms, with or without
19# modification, are permitted provided that the following conditions are
20# met: redistributions of source code must retain the above copyright
21# notice, this list of conditions and the following disclaimer;
22# redistributions in binary form must reproduce the above copyright
23# notice, this list of conditions and the following disclaimer in the
24# documentation and/or other materials provided with the distribution;
25# neither the name of the copyright holders nor the names of its
26# contributors may be used to endorse or promote products derived from
27# this software without specific prior written permission.
28#
29# THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
30# "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
31# LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
32# A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
33# OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
34# SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
35# LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
36# DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
37# THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
38# (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
39# OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
40#
41# Authors: Steve Reinhardt
42# Nathan Binkert
43# Andreas Hansson
| 2# All rights reserved.
3#
4# The license below extends only to copyright in the software and shall
5# not be construed as granting a license to any other intellectual
6# property including but not limited to intellectual property relating
7# to a hardware implementation of the functionality of the software
8# licensed hereunder. You may use the software subject to the license
9# terms below provided that you ensure that this notice is replicated
10# unmodified and in its entirety in all distributions of the software,
11# modified or unmodified, in source code or in binary form.
12#
13# Copyright (c) 2004-2006 The Regents of The University of Michigan
14# Copyright (c) 2010-20013 Advanced Micro Devices, Inc.
15# Copyright (c) 2013 Mark D. Hill and David A. Wood
16# All rights reserved.
17#
18# Redistribution and use in source and binary forms, with or without
19# modification, are permitted provided that the following conditions are
20# met: redistributions of source code must retain the above copyright
21# notice, this list of conditions and the following disclaimer;
22# redistributions in binary form must reproduce the above copyright
23# notice, this list of conditions and the following disclaimer in the
24# documentation and/or other materials provided with the distribution;
25# neither the name of the copyright holders nor the names of its
26# contributors may be used to endorse or promote products derived from
27# this software without specific prior written permission.
28#
29# THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
30# "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
31# LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
32# A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
33# OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
34# SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
35# LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
36# DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
37# THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
38# (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
39# OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
40#
41# Authors: Steve Reinhardt
42# Nathan Binkert
43# Andreas Hansson
|
| 44# Andreas Sandberg
|
44
45import sys
46from types import FunctionType, MethodType, ModuleType
| 45
46import sys
47from types import FunctionType, MethodType, ModuleType
|
| 48from functools import wraps
49import inspect
|
47
48import m5
49from m5.util import *
| 50
51import m5
52from m5.util import *
|
| 53from m5.util.pybind import *
|
50
51# Have to import params up top since Param is referenced on initial
52# load (when SimObject class references Param to create a class
53# variable, the 'name' param)...
54from m5.params import *
55# There are a few things we need that aren't in params.__all__ since
56# normal users don't need them
57from m5.params import ParamDesc, VectorParamDesc, \
58 isNullPointer, SimObjectVector, Port
59
60from m5.proxy import *
61from m5.proxy import isproxy
62
63#####################################################################
64#
65# M5 Python Configuration Utility
66#
67# The basic idea is to write simple Python programs that build Python
68# objects corresponding to M5 SimObjects for the desired simulation
69# configuration. For now, the Python emits a .ini file that can be
70# parsed by M5. In the future, some tighter integration between M5
71# and the Python interpreter may allow bypassing the .ini file.
72#
73# Each SimObject class in M5 is represented by a Python class with the
74# same name. The Python inheritance tree mirrors the M5 C++ tree
75# (e.g., SimpleCPU derives from BaseCPU in both cases, and all
76# SimObjects inherit from a single SimObject base class). To specify
77# an instance of an M5 SimObject in a configuration, the user simply
78# instantiates the corresponding Python object. The parameters for
79# that SimObject are given by assigning to attributes of the Python
80# object, either using keyword assignment in the constructor or in
81# separate assignment statements. For example:
82#
83# cache = BaseCache(size='64KB')
84# cache.hit_latency = 3
85# cache.assoc = 8
86#
87# The magic lies in the mapping of the Python attributes for SimObject
88# classes to the actual SimObject parameter specifications. This
89# allows parameter validity checking in the Python code. Continuing
90# the example above, the statements "cache.blurfl=3" or
91# "cache.assoc='hello'" would both result in runtime errors in Python,
92# since the BaseCache object has no 'blurfl' parameter and the 'assoc'
93# parameter requires an integer, respectively. This magic is done
94# primarily by overriding the special __setattr__ method that controls
95# assignment to object attributes.
96#
97# Once a set of Python objects have been instantiated in a hierarchy,
98# calling 'instantiate(obj)' (where obj is the root of the hierarchy)
99# will generate a .ini file.
100#
101#####################################################################
102
103# list of all SimObject classes
104allClasses = {}
105
106# dict to look up SimObjects based on path
107instanceDict = {}
108
109# Did any of the SimObjects lack a header file?
110noCxxHeader = False
111
112def public_value(key, value):
113 return key.startswith('_') or \
114 isinstance(value, (FunctionType, MethodType, ModuleType,
115 classmethod, type))
116
117def createCxxConfigDirectoryEntryFile(code, name, simobj, is_header):
118 entry_class = 'CxxConfigDirectoryEntry_%s' % name
119 param_class = '%sCxxConfigParams' % name
120
121 code('#include "params/%s.hh"' % name)
122
123 if not is_header:
124 for param in simobj._params.values():
125 if isSimObjectClass(param.ptype):
126 code('#include "%s"' % param.ptype._value_dict['cxx_header'])
127 code('#include "params/%s.hh"' % param.ptype.__name__)
128 else:
129 param.ptype.cxx_ini_predecls(code)
130
131 if is_header:
132 member_prefix = ''
133 end_of_decl = ';'
134 code('#include "sim/cxx_config.hh"')
135 code()
136 code('class ${param_class} : public CxxConfigParams,'
137 ' public ${name}Params')
138 code('{')
139 code(' private:')
140 code.indent()
141 code('class DirectoryEntry : public CxxConfigDirectoryEntry')
142 code('{')
143 code(' public:')
144 code.indent()
145 code('DirectoryEntry();');
146 code()
147 code('CxxConfigParams *makeParamsObject() const')
148 code('{ return new ${param_class}; }')
149 code.dedent()
150 code('};')
151 code()
152 code.dedent()
153 code(' public:')
154 code.indent()
155 else:
156 member_prefix = '%s::' % param_class
157 end_of_decl = ''
158 code('#include "%s"' % simobj._value_dict['cxx_header'])
159 code('#include "base/str.hh"')
160 code('#include "cxx_config/${name}.hh"')
161
162 if simobj._ports.values() != []:
163 code('#include "mem/mem_object.hh"')
164 code('#include "mem/port.hh"')
165
166 code()
167 code('${member_prefix}DirectoryEntry::DirectoryEntry()');
168 code('{')
169
170 def cxx_bool(b):
171 return 'true' if b else 'false'
172
173 code.indent()
174 for param in simobj._params.values():
175 is_vector = isinstance(param, m5.params.VectorParamDesc)
176 is_simobj = issubclass(param.ptype, m5.SimObject.SimObject)
177
178 code('parameters["%s"] = new ParamDesc("%s", %s, %s);' %
179 (param.name, param.name, cxx_bool(is_vector),
180 cxx_bool(is_simobj)));
181
182 for port in simobj._ports.values():
183 is_vector = isinstance(port, m5.params.VectorPort)
184 is_master = port.role == 'MASTER'
185
186 code('ports["%s"] = new PortDesc("%s", %s, %s);' %
187 (port.name, port.name, cxx_bool(is_vector),
188 cxx_bool(is_master)))
189
190 code.dedent()
191 code('}')
192 code()
193
194 code('bool ${member_prefix}setSimObject(const std::string &name,')
195 code(' SimObject *simObject)${end_of_decl}')
196
197 if not is_header:
198 code('{')
199 code.indent()
200 code('bool ret = true;')
201 code()
202 code('if (false) {')
203 for param in simobj._params.values():
204 is_vector = isinstance(param, m5.params.VectorParamDesc)
205 is_simobj = issubclass(param.ptype, m5.SimObject.SimObject)
206
207 if is_simobj and not is_vector:
208 code('} else if (name == "${{param.name}}") {')
209 code.indent()
210 code('this->${{param.name}} = '
211 'dynamic_cast<${{param.ptype.cxx_type}}>(simObject);')
212 code('if (simObject && !this->${{param.name}})')
213 code(' ret = false;')
214 code.dedent()
215 code('} else {')
216 code(' ret = false;')
217 code('}')
218 code()
219 code('return ret;')
220 code.dedent()
221 code('}')
222
223 code()
224 code('bool ${member_prefix}setSimObjectVector('
225 'const std::string &name,')
226 code(' const std::vector<SimObject *> &simObjects)${end_of_decl}')
227
228 if not is_header:
229 code('{')
230 code.indent()
231 code('bool ret = true;')
232 code()
233 code('if (false) {')
234 for param in simobj._params.values():
235 is_vector = isinstance(param, m5.params.VectorParamDesc)
236 is_simobj = issubclass(param.ptype, m5.SimObject.SimObject)
237
238 if is_simobj and is_vector:
239 code('} else if (name == "${{param.name}}") {')
240 code.indent()
241 code('this->${{param.name}}.clear();')
242 code('for (auto i = simObjects.begin(); '
243 'ret && i != simObjects.end(); i ++)')
244 code('{')
245 code.indent()
246 code('${{param.ptype.cxx_type}} object = '
247 'dynamic_cast<${{param.ptype.cxx_type}}>(*i);')
248 code('if (*i && !object)')
249 code(' ret = false;')
250 code('else')
251 code(' this->${{param.name}}.push_back(object);')
252 code.dedent()
253 code('}')
254 code.dedent()
255 code('} else {')
256 code(' ret = false;')
257 code('}')
258 code()
259 code('return ret;')
260 code.dedent()
261 code('}')
262
263 code()
264 code('void ${member_prefix}setName(const std::string &name_)'
265 '${end_of_decl}')
266
267 if not is_header:
268 code('{')
269 code.indent()
270 code('this->name = name_;')
| 54
55# Have to import params up top since Param is referenced on initial
56# load (when SimObject class references Param to create a class
57# variable, the 'name' param)...
58from m5.params import *
59# There are a few things we need that aren't in params.__all__ since
60# normal users don't need them
61from m5.params import ParamDesc, VectorParamDesc, \
62 isNullPointer, SimObjectVector, Port
63
64from m5.proxy import *
65from m5.proxy import isproxy
66
67#####################################################################
68#
69# M5 Python Configuration Utility
70#
71# The basic idea is to write simple Python programs that build Python
72# objects corresponding to M5 SimObjects for the desired simulation
73# configuration. For now, the Python emits a .ini file that can be
74# parsed by M5. In the future, some tighter integration between M5
75# and the Python interpreter may allow bypassing the .ini file.
76#
77# Each SimObject class in M5 is represented by a Python class with the
78# same name. The Python inheritance tree mirrors the M5 C++ tree
79# (e.g., SimpleCPU derives from BaseCPU in both cases, and all
80# SimObjects inherit from a single SimObject base class). To specify
81# an instance of an M5 SimObject in a configuration, the user simply
82# instantiates the corresponding Python object. The parameters for
83# that SimObject are given by assigning to attributes of the Python
84# object, either using keyword assignment in the constructor or in
85# separate assignment statements. For example:
86#
87# cache = BaseCache(size='64KB')
88# cache.hit_latency = 3
89# cache.assoc = 8
90#
91# The magic lies in the mapping of the Python attributes for SimObject
92# classes to the actual SimObject parameter specifications. This
93# allows parameter validity checking in the Python code. Continuing
94# the example above, the statements "cache.blurfl=3" or
95# "cache.assoc='hello'" would both result in runtime errors in Python,
96# since the BaseCache object has no 'blurfl' parameter and the 'assoc'
97# parameter requires an integer, respectively. This magic is done
98# primarily by overriding the special __setattr__ method that controls
99# assignment to object attributes.
100#
101# Once a set of Python objects have been instantiated in a hierarchy,
102# calling 'instantiate(obj)' (where obj is the root of the hierarchy)
103# will generate a .ini file.
104#
105#####################################################################
106
107# list of all SimObject classes
108allClasses = {}
109
110# dict to look up SimObjects based on path
111instanceDict = {}
112
113# Did any of the SimObjects lack a header file?
114noCxxHeader = False
115
116def public_value(key, value):
117 return key.startswith('_') or \
118 isinstance(value, (FunctionType, MethodType, ModuleType,
119 classmethod, type))
120
121def createCxxConfigDirectoryEntryFile(code, name, simobj, is_header):
122 entry_class = 'CxxConfigDirectoryEntry_%s' % name
123 param_class = '%sCxxConfigParams' % name
124
125 code('#include "params/%s.hh"' % name)
126
127 if not is_header:
128 for param in simobj._params.values():
129 if isSimObjectClass(param.ptype):
130 code('#include "%s"' % param.ptype._value_dict['cxx_header'])
131 code('#include "params/%s.hh"' % param.ptype.__name__)
132 else:
133 param.ptype.cxx_ini_predecls(code)
134
135 if is_header:
136 member_prefix = ''
137 end_of_decl = ';'
138 code('#include "sim/cxx_config.hh"')
139 code()
140 code('class ${param_class} : public CxxConfigParams,'
141 ' public ${name}Params')
142 code('{')
143 code(' private:')
144 code.indent()
145 code('class DirectoryEntry : public CxxConfigDirectoryEntry')
146 code('{')
147 code(' public:')
148 code.indent()
149 code('DirectoryEntry();');
150 code()
151 code('CxxConfigParams *makeParamsObject() const')
152 code('{ return new ${param_class}; }')
153 code.dedent()
154 code('};')
155 code()
156 code.dedent()
157 code(' public:')
158 code.indent()
159 else:
160 member_prefix = '%s::' % param_class
161 end_of_decl = ''
162 code('#include "%s"' % simobj._value_dict['cxx_header'])
163 code('#include "base/str.hh"')
164 code('#include "cxx_config/${name}.hh"')
165
166 if simobj._ports.values() != []:
167 code('#include "mem/mem_object.hh"')
168 code('#include "mem/port.hh"')
169
170 code()
171 code('${member_prefix}DirectoryEntry::DirectoryEntry()');
172 code('{')
173
174 def cxx_bool(b):
175 return 'true' if b else 'false'
176
177 code.indent()
178 for param in simobj._params.values():
179 is_vector = isinstance(param, m5.params.VectorParamDesc)
180 is_simobj = issubclass(param.ptype, m5.SimObject.SimObject)
181
182 code('parameters["%s"] = new ParamDesc("%s", %s, %s);' %
183 (param.name, param.name, cxx_bool(is_vector),
184 cxx_bool(is_simobj)));
185
186 for port in simobj._ports.values():
187 is_vector = isinstance(port, m5.params.VectorPort)
188 is_master = port.role == 'MASTER'
189
190 code('ports["%s"] = new PortDesc("%s", %s, %s);' %
191 (port.name, port.name, cxx_bool(is_vector),
192 cxx_bool(is_master)))
193
194 code.dedent()
195 code('}')
196 code()
197
198 code('bool ${member_prefix}setSimObject(const std::string &name,')
199 code(' SimObject *simObject)${end_of_decl}')
200
201 if not is_header:
202 code('{')
203 code.indent()
204 code('bool ret = true;')
205 code()
206 code('if (false) {')
207 for param in simobj._params.values():
208 is_vector = isinstance(param, m5.params.VectorParamDesc)
209 is_simobj = issubclass(param.ptype, m5.SimObject.SimObject)
210
211 if is_simobj and not is_vector:
212 code('} else if (name == "${{param.name}}") {')
213 code.indent()
214 code('this->${{param.name}} = '
215 'dynamic_cast<${{param.ptype.cxx_type}}>(simObject);')
216 code('if (simObject && !this->${{param.name}})')
217 code(' ret = false;')
218 code.dedent()
219 code('} else {')
220 code(' ret = false;')
221 code('}')
222 code()
223 code('return ret;')
224 code.dedent()
225 code('}')
226
227 code()
228 code('bool ${member_prefix}setSimObjectVector('
229 'const std::string &name,')
230 code(' const std::vector<SimObject *> &simObjects)${end_of_decl}')
231
232 if not is_header:
233 code('{')
234 code.indent()
235 code('bool ret = true;')
236 code()
237 code('if (false) {')
238 for param in simobj._params.values():
239 is_vector = isinstance(param, m5.params.VectorParamDesc)
240 is_simobj = issubclass(param.ptype, m5.SimObject.SimObject)
241
242 if is_simobj and is_vector:
243 code('} else if (name == "${{param.name}}") {')
244 code.indent()
245 code('this->${{param.name}}.clear();')
246 code('for (auto i = simObjects.begin(); '
247 'ret && i != simObjects.end(); i ++)')
248 code('{')
249 code.indent()
250 code('${{param.ptype.cxx_type}} object = '
251 'dynamic_cast<${{param.ptype.cxx_type}}>(*i);')
252 code('if (*i && !object)')
253 code(' ret = false;')
254 code('else')
255 code(' this->${{param.name}}.push_back(object);')
256 code.dedent()
257 code('}')
258 code.dedent()
259 code('} else {')
260 code(' ret = false;')
261 code('}')
262 code()
263 code('return ret;')
264 code.dedent()
265 code('}')
266
267 code()
268 code('void ${member_prefix}setName(const std::string &name_)'
269 '${end_of_decl}')
270
271 if not is_header:
272 code('{')
273 code.indent()
274 code('this->name = name_;')
|
271 code('this->pyobj = NULL;')
| |
272 code.dedent()
273 code('}')
274
275 if is_header:
276 code('const std::string &${member_prefix}getName()')
277 code('{ return this->name; }')
278
279 code()
280 code('bool ${member_prefix}setParam(const std::string &name,')
281 code(' const std::string &value, const Flags flags)${end_of_decl}')
282
283 if not is_header:
284 code('{')
285 code.indent()
286 code('bool ret = true;')
287 code()
288 code('if (false) {')
289 for param in simobj._params.values():
290 is_vector = isinstance(param, m5.params.VectorParamDesc)
291 is_simobj = issubclass(param.ptype, m5.SimObject.SimObject)
292
293 if not is_simobj and not is_vector:
294 code('} else if (name == "${{param.name}}") {')
295 code.indent()
296 param.ptype.cxx_ini_parse(code,
297 'value', 'this->%s' % param.name, 'ret =')
298 code.dedent()
299 code('} else {')
300 code(' ret = false;')
301 code('}')
302 code()
303 code('return ret;')
304 code.dedent()
305 code('}')
306
307 code()
308 code('bool ${member_prefix}setParamVector('
309 'const std::string &name,')
310 code(' const std::vector<std::string> &values,')
311 code(' const Flags flags)${end_of_decl}')
312
313 if not is_header:
314 code('{')
315 code.indent()
316 code('bool ret = true;')
317 code()
318 code('if (false) {')
319 for param in simobj._params.values():
320 is_vector = isinstance(param, m5.params.VectorParamDesc)
321 is_simobj = issubclass(param.ptype, m5.SimObject.SimObject)
322
323 if not is_simobj and is_vector:
324 code('} else if (name == "${{param.name}}") {')
325 code.indent()
326 code('${{param.name}}.clear();')
327 code('for (auto i = values.begin(); '
328 'ret && i != values.end(); i ++)')
329 code('{')
330 code.indent()
331 code('${{param.ptype.cxx_type}} elem;')
332 param.ptype.cxx_ini_parse(code,
333 '*i', 'elem', 'ret =')
334 code('if (ret)')
335 code(' this->${{param.name}}.push_back(elem);')
336 code.dedent()
337 code('}')
338 code.dedent()
339 code('} else {')
340 code(' ret = false;')
341 code('}')
342 code()
343 code('return ret;')
344 code.dedent()
345 code('}')
346
347 code()
348 code('bool ${member_prefix}setPortConnectionCount('
349 'const std::string &name,')
350 code(' unsigned int count)${end_of_decl}')
351
352 if not is_header:
353 code('{')
354 code.indent()
355 code('bool ret = true;')
356 code()
357 code('if (false)')
358 code(' ;')
359 for port in simobj._ports.values():
360 code('else if (name == "${{port.name}}")')
361 code(' this->port_${{port.name}}_connection_count = count;')
362 code('else')
363 code(' ret = false;')
364 code()
365 code('return ret;')
366 code.dedent()
367 code('}')
368
369 code()
370 code('SimObject *${member_prefix}simObjectCreate()${end_of_decl}')
371
372 if not is_header:
373 code('{')
374 if hasattr(simobj, 'abstract') and simobj.abstract:
375 code(' return NULL;')
376 else:
377 code(' return this->create();')
378 code('}')
379
380 if is_header:
381 code()
382 code('static CxxConfigDirectoryEntry'
383 ' *${member_prefix}makeDirectoryEntry()')
384 code('{ return new DirectoryEntry; }')
385
386 if is_header:
387 code.dedent()
388 code('};')
389
390# The metaclass for SimObject. This class controls how new classes
391# that derive from SimObject are instantiated, and provides inherited
392# class behavior (just like a class controls how instances of that
393# class are instantiated, and provides inherited instance behavior).
394class MetaSimObject(type):
395 # Attributes that can be set only at initialization time
| 275 code.dedent()
276 code('}')
277
278 if is_header:
279 code('const std::string &${member_prefix}getName()')
280 code('{ return this->name; }')
281
282 code()
283 code('bool ${member_prefix}setParam(const std::string &name,')
284 code(' const std::string &value, const Flags flags)${end_of_decl}')
285
286 if not is_header:
287 code('{')
288 code.indent()
289 code('bool ret = true;')
290 code()
291 code('if (false) {')
292 for param in simobj._params.values():
293 is_vector = isinstance(param, m5.params.VectorParamDesc)
294 is_simobj = issubclass(param.ptype, m5.SimObject.SimObject)
295
296 if not is_simobj and not is_vector:
297 code('} else if (name == "${{param.name}}") {')
298 code.indent()
299 param.ptype.cxx_ini_parse(code,
300 'value', 'this->%s' % param.name, 'ret =')
301 code.dedent()
302 code('} else {')
303 code(' ret = false;')
304 code('}')
305 code()
306 code('return ret;')
307 code.dedent()
308 code('}')
309
310 code()
311 code('bool ${member_prefix}setParamVector('
312 'const std::string &name,')
313 code(' const std::vector<std::string> &values,')
314 code(' const Flags flags)${end_of_decl}')
315
316 if not is_header:
317 code('{')
318 code.indent()
319 code('bool ret = true;')
320 code()
321 code('if (false) {')
322 for param in simobj._params.values():
323 is_vector = isinstance(param, m5.params.VectorParamDesc)
324 is_simobj = issubclass(param.ptype, m5.SimObject.SimObject)
325
326 if not is_simobj and is_vector:
327 code('} else if (name == "${{param.name}}") {')
328 code.indent()
329 code('${{param.name}}.clear();')
330 code('for (auto i = values.begin(); '
331 'ret && i != values.end(); i ++)')
332 code('{')
333 code.indent()
334 code('${{param.ptype.cxx_type}} elem;')
335 param.ptype.cxx_ini_parse(code,
336 '*i', 'elem', 'ret =')
337 code('if (ret)')
338 code(' this->${{param.name}}.push_back(elem);')
339 code.dedent()
340 code('}')
341 code.dedent()
342 code('} else {')
343 code(' ret = false;')
344 code('}')
345 code()
346 code('return ret;')
347 code.dedent()
348 code('}')
349
350 code()
351 code('bool ${member_prefix}setPortConnectionCount('
352 'const std::string &name,')
353 code(' unsigned int count)${end_of_decl}')
354
355 if not is_header:
356 code('{')
357 code.indent()
358 code('bool ret = true;')
359 code()
360 code('if (false)')
361 code(' ;')
362 for port in simobj._ports.values():
363 code('else if (name == "${{port.name}}")')
364 code(' this->port_${{port.name}}_connection_count = count;')
365 code('else')
366 code(' ret = false;')
367 code()
368 code('return ret;')
369 code.dedent()
370 code('}')
371
372 code()
373 code('SimObject *${member_prefix}simObjectCreate()${end_of_decl}')
374
375 if not is_header:
376 code('{')
377 if hasattr(simobj, 'abstract') and simobj.abstract:
378 code(' return NULL;')
379 else:
380 code(' return this->create();')
381 code('}')
382
383 if is_header:
384 code()
385 code('static CxxConfigDirectoryEntry'
386 ' *${member_prefix}makeDirectoryEntry()')
387 code('{ return new DirectoryEntry; }')
388
389 if is_header:
390 code.dedent()
391 code('};')
392
393# The metaclass for SimObject. This class controls how new classes
394# that derive from SimObject are instantiated, and provides inherited
395# class behavior (just like a class controls how instances of that
396# class are instantiated, and provides inherited instance behavior).
397class MetaSimObject(type):
398 # Attributes that can be set only at initialization time
|
396 init_keywords = { 'abstract' : bool,
397 'cxx_class' : str,
398 'cxx_type' : str,
399 'cxx_header' : str,
400 'type' : str,
401 'cxx_bases' : list }
| 399 init_keywords = {
400 'abstract' : bool,
401 'cxx_class' : str,
402 'cxx_type' : str,
403 'cxx_header' : str,
404 'type' : str,
405 'cxx_bases' : list,
406 'cxx_exports' : list,
407 'cxx_param_exports' : list,
408 }
|
402 # Attributes that can be set any time
403 keywords = { 'check' : FunctionType }
404
405 # __new__ is called before __init__, and is where the statements
406 # in the body of the class definition get loaded into the class's
407 # __dict__. We intercept this to filter out parameter & port assignments
408 # and only allow "private" attributes to be passed to the base
409 # __new__ (starting with underscore).
410 def __new__(mcls, name, bases, dict):
411 assert name not in allClasses, "SimObject %s already present" % name
412
413 # Copy "private" attributes, functions, and classes to the
414 # official dict. Everything else goes in _init_dict to be
415 # filtered in __init__.
416 cls_dict = {}
417 value_dict = {}
| 409 # Attributes that can be set any time
410 keywords = { 'check' : FunctionType }
411
412 # __new__ is called before __init__, and is where the statements
413 # in the body of the class definition get loaded into the class's
414 # __dict__. We intercept this to filter out parameter & port assignments
415 # and only allow "private" attributes to be passed to the base
416 # __new__ (starting with underscore).
417 def __new__(mcls, name, bases, dict):
418 assert name not in allClasses, "SimObject %s already present" % name
419
420 # Copy "private" attributes, functions, and classes to the
421 # official dict. Everything else goes in _init_dict to be
422 # filtered in __init__.
423 cls_dict = {}
424 value_dict = {}
|
| 425 cxx_exports = []
|
418 for key,val in dict.items():
| 426 for key,val in dict.items():
|
| 427 try:
428 cxx_exports.append(getattr(val, "__pybind"))
429 except AttributeError:
430 pass
431
|
419 if public_value(key, val):
420 cls_dict[key] = val
421 else:
422 # must be a param/port setting
423 value_dict[key] = val
424 if 'abstract' not in value_dict:
425 value_dict['abstract'] = False
426 if 'cxx_bases' not in value_dict:
427 value_dict['cxx_bases'] = []
| 432 if public_value(key, val):
433 cls_dict[key] = val
434 else:
435 # must be a param/port setting
436 value_dict[key] = val
437 if 'abstract' not in value_dict:
438 value_dict['abstract'] = False
439 if 'cxx_bases' not in value_dict:
440 value_dict['cxx_bases'] = []
|
| 441 if 'cxx_exports' not in value_dict:
442 value_dict['cxx_exports'] = cxx_exports
443 else:
444 value_dict['cxx_exports'] += cxx_exports
445 if 'cxx_param_exports' not in value_dict:
446 value_dict['cxx_param_exports'] = []
|
428 cls_dict['_value_dict'] = value_dict
429 cls = super(MetaSimObject, mcls).__new__(mcls, name, bases, cls_dict)
430 if 'type' in value_dict:
431 allClasses[name] = cls
432 return cls
433
434 # subclass initialization
435 def __init__(cls, name, bases, dict):
436 # calls type.__init__()... I think that's a no-op, but leave
437 # it here just in case it's not.
438 super(MetaSimObject, cls).__init__(name, bases, dict)
439
440 # initialize required attributes
441
442 # class-only attributes
443 cls._params = multidict() # param descriptions
444 cls._ports = multidict() # port descriptions
445
446 # class or instance attributes
447 cls._values = multidict() # param values
448 cls._hr_values = multidict() # human readable param values
449 cls._children = multidict() # SimObject children
450 cls._port_refs = multidict() # port ref objects
451 cls._instantiated = False # really instantiated, cloned, or subclassed
452
453 # We don't support multiple inheritance of sim objects. If you want
454 # to, you must fix multidict to deal with it properly. Non sim-objects
455 # are ok, though
456 bTotal = 0
457 for c in bases:
458 if isinstance(c, MetaSimObject):
459 bTotal += 1
460 if bTotal > 1:
461 raise TypeError, "SimObjects do not support multiple inheritance"
462
463 base = bases[0]
464
465 # Set up general inheritance via multidicts. A subclass will
466 # inherit all its settings from the base class. The only time
467 # the following is not true is when we define the SimObject
468 # class itself (in which case the multidicts have no parent).
469 if isinstance(base, MetaSimObject):
470 cls._base = base
471 cls._params.parent = base._params
472 cls._ports.parent = base._ports
473 cls._values.parent = base._values
474 cls._hr_values.parent = base._hr_values
475 cls._children.parent = base._children
476 cls._port_refs.parent = base._port_refs
477 # mark base as having been subclassed
478 base._instantiated = True
479 else:
480 cls._base = None
481
482 # default keyword values
483 if 'type' in cls._value_dict:
484 if 'cxx_class' not in cls._value_dict:
485 cls._value_dict['cxx_class'] = cls._value_dict['type']
486
487 cls._value_dict['cxx_type'] = '%s *' % cls._value_dict['cxx_class']
488
489 if 'cxx_header' not in cls._value_dict:
490 global noCxxHeader
491 noCxxHeader = True
492 warn("No header file specified for SimObject: %s", name)
493
494 # Export methods are automatically inherited via C++, so we
495 # don't want the method declarations to get inherited on the
496 # python side (and thus end up getting repeated in the wrapped
497 # versions of derived classes). The code below basicallly
498 # suppresses inheritance by substituting in the base (null)
499 # versions of these methods unless a different version is
500 # explicitly supplied.
501 for method_name in ('export_methods', 'export_method_swig_predecls'):
502 if method_name not in cls.__dict__:
503 base_method = getattr(MetaSimObject, method_name)
504 m = MethodType(base_method, cls, MetaSimObject)
505 setattr(cls, method_name, m)
506
507 # Now process the _value_dict items. They could be defining
508 # new (or overriding existing) parameters or ports, setting
509 # class keywords (e.g., 'abstract'), or setting parameter
510 # values or port bindings. The first 3 can only be set when
511 # the class is defined, so we handle them here. The others
512 # can be set later too, so just emulate that by calling
513 # setattr().
514 for key,val in cls._value_dict.items():
515 # param descriptions
516 if isinstance(val, ParamDesc):
517 cls._new_param(key, val)
518
519 # port objects
520 elif isinstance(val, Port):
521 cls._new_port(key, val)
522
523 # init-time-only keywords
524 elif cls.init_keywords.has_key(key):
525 cls._set_keyword(key, val, cls.init_keywords[key])
526
527 # default: use normal path (ends up in __setattr__)
528 else:
529 setattr(cls, key, val)
530
531 def _set_keyword(cls, keyword, val, kwtype):
532 if not isinstance(val, kwtype):
533 raise TypeError, 'keyword %s has bad type %s (expecting %s)' % \
534 (keyword, type(val), kwtype)
535 if isinstance(val, FunctionType):
536 val = classmethod(val)
537 type.__setattr__(cls, keyword, val)
538
539 def _new_param(cls, name, pdesc):
540 # each param desc should be uniquely assigned to one variable
541 assert(not hasattr(pdesc, 'name'))
542 pdesc.name = name
543 cls._params[name] = pdesc
544 if hasattr(pdesc, 'default'):
545 cls._set_param(name, pdesc.default, pdesc)
546
547 def _set_param(cls, name, value, param):
548 assert(param.name == name)
549 try:
550 hr_value = value
551 value = param.convert(value)
552 except Exception, e:
553 msg = "%s\nError setting param %s.%s to %s\n" % \
554 (e, cls.__name__, name, value)
555 e.args = (msg, )
556 raise
557 cls._values[name] = value
558 # if param value is a SimObject, make it a child too, so that
559 # it gets cloned properly when the class is instantiated
560 if isSimObjectOrVector(value) and not value.has_parent():
561 cls._add_cls_child(name, value)
562 # update human-readable values of the param if it has a literal
563 # value and is not an object or proxy.
564 if not (isSimObjectOrVector(value) or\
565 isinstance(value, m5.proxy.BaseProxy)):
566 cls._hr_values[name] = hr_value
567
568 def _add_cls_child(cls, name, child):
569 # It's a little funky to have a class as a parent, but these
570 # objects should never be instantiated (only cloned, which
571 # clears the parent pointer), and this makes it clear that the
572 # object is not an orphan and can provide better error
573 # messages.
574 child.set_parent(cls, name)
575 cls._children[name] = child
576
577 def _new_port(cls, name, port):
578 # each port should be uniquely assigned to one variable
579 assert(not hasattr(port, 'name'))
580 port.name = name
581 cls._ports[name] = port
582
583 # same as _get_port_ref, effectively, but for classes
584 def _cls_get_port_ref(cls, attr):
585 # Return reference that can be assigned to another port
586 # via __setattr__. There is only ever one reference
587 # object per port, but we create them lazily here.
588 ref = cls._port_refs.get(attr)
589 if not ref:
590 ref = cls._ports[attr].makeRef(cls)
591 cls._port_refs[attr] = ref
592 return ref
593
594 # Set attribute (called on foo.attr = value when foo is an
595 # instance of class cls).
596 def __setattr__(cls, attr, value):
597 # normal processing for private attributes
598 if public_value(attr, value):
599 type.__setattr__(cls, attr, value)
600 return
601
602 if cls.keywords.has_key(attr):
603 cls._set_keyword(attr, value, cls.keywords[attr])
604 return
605
606 if cls._ports.has_key(attr):
607 cls._cls_get_port_ref(attr).connect(value)
608 return
609
610 if isSimObjectOrSequence(value) and cls._instantiated:
611 raise RuntimeError, \
612 "cannot set SimObject parameter '%s' after\n" \
613 " class %s has been instantiated or subclassed" \
614 % (attr, cls.__name__)
615
616 # check for param
617 param = cls._params.get(attr)
618 if param:
619 cls._set_param(attr, value, param)
620 return
621
622 if isSimObjectOrSequence(value):
623 # If RHS is a SimObject, it's an implicit child assignment.
624 cls._add_cls_child(attr, coerceSimObjectOrVector(value))
625 return
626
627 # no valid assignment... raise exception
628 raise AttributeError, \
629 "Class %s has no parameter \'%s\'" % (cls.__name__, attr)
630
631 def __getattr__(cls, attr):
632 if attr == 'cxx_class_path':
633 return cls.cxx_class.split('::')
634
635 if attr == 'cxx_class_name':
636 return cls.cxx_class_path[-1]
637
638 if attr == 'cxx_namespaces':
639 return cls.cxx_class_path[:-1]
640
641 if cls._values.has_key(attr):
642 return cls._values[attr]
643
644 if cls._children.has_key(attr):
645 return cls._children[attr]
646
647 raise AttributeError, \
648 "object '%s' has no attribute '%s'" % (cls.__name__, attr)
649
650 def __str__(cls):
651 return cls.__name__
652
653 # See ParamValue.cxx_predecls for description.
654 def cxx_predecls(cls, code):
655 code('#include "params/$cls.hh"')
656
| 447 cls_dict['_value_dict'] = value_dict
448 cls = super(MetaSimObject, mcls).__new__(mcls, name, bases, cls_dict)
449 if 'type' in value_dict:
450 allClasses[name] = cls
451 return cls
452
453 # subclass initialization
454 def __init__(cls, name, bases, dict):
455 # calls type.__init__()... I think that's a no-op, but leave
456 # it here just in case it's not.
457 super(MetaSimObject, cls).__init__(name, bases, dict)
458
459 # initialize required attributes
460
461 # class-only attributes
462 cls._params = multidict() # param descriptions
463 cls._ports = multidict() # port descriptions
464
465 # class or instance attributes
466 cls._values = multidict() # param values
467 cls._hr_values = multidict() # human readable param values
468 cls._children = multidict() # SimObject children
469 cls._port_refs = multidict() # port ref objects
470 cls._instantiated = False # really instantiated, cloned, or subclassed
471
472 # We don't support multiple inheritance of sim objects. If you want
473 # to, you must fix multidict to deal with it properly. Non sim-objects
474 # are ok, though
475 bTotal = 0
476 for c in bases:
477 if isinstance(c, MetaSimObject):
478 bTotal += 1
479 if bTotal > 1:
480 raise TypeError, "SimObjects do not support multiple inheritance"
481
482 base = bases[0]
483
484 # Set up general inheritance via multidicts. A subclass will
485 # inherit all its settings from the base class. The only time
486 # the following is not true is when we define the SimObject
487 # class itself (in which case the multidicts have no parent).
488 if isinstance(base, MetaSimObject):
489 cls._base = base
490 cls._params.parent = base._params
491 cls._ports.parent = base._ports
492 cls._values.parent = base._values
493 cls._hr_values.parent = base._hr_values
494 cls._children.parent = base._children
495 cls._port_refs.parent = base._port_refs
496 # mark base as having been subclassed
497 base._instantiated = True
498 else:
499 cls._base = None
500
501 # default keyword values
502 if 'type' in cls._value_dict:
503 if 'cxx_class' not in cls._value_dict:
504 cls._value_dict['cxx_class'] = cls._value_dict['type']
505
506 cls._value_dict['cxx_type'] = '%s *' % cls._value_dict['cxx_class']
507
508 if 'cxx_header' not in cls._value_dict:
509 global noCxxHeader
510 noCxxHeader = True
511 warn("No header file specified for SimObject: %s", name)
512
513 # Export methods are automatically inherited via C++, so we
514 # don't want the method declarations to get inherited on the
515 # python side (and thus end up getting repeated in the wrapped
516 # versions of derived classes). The code below basicallly
517 # suppresses inheritance by substituting in the base (null)
518 # versions of these methods unless a different version is
519 # explicitly supplied.
520 for method_name in ('export_methods', 'export_method_swig_predecls'):
521 if method_name not in cls.__dict__:
522 base_method = getattr(MetaSimObject, method_name)
523 m = MethodType(base_method, cls, MetaSimObject)
524 setattr(cls, method_name, m)
525
526 # Now process the _value_dict items. They could be defining
527 # new (or overriding existing) parameters or ports, setting
528 # class keywords (e.g., 'abstract'), or setting parameter
529 # values or port bindings. The first 3 can only be set when
530 # the class is defined, so we handle them here. The others
531 # can be set later too, so just emulate that by calling
532 # setattr().
533 for key,val in cls._value_dict.items():
534 # param descriptions
535 if isinstance(val, ParamDesc):
536 cls._new_param(key, val)
537
538 # port objects
539 elif isinstance(val, Port):
540 cls._new_port(key, val)
541
542 # init-time-only keywords
543 elif cls.init_keywords.has_key(key):
544 cls._set_keyword(key, val, cls.init_keywords[key])
545
546 # default: use normal path (ends up in __setattr__)
547 else:
548 setattr(cls, key, val)
549
550 def _set_keyword(cls, keyword, val, kwtype):
551 if not isinstance(val, kwtype):
552 raise TypeError, 'keyword %s has bad type %s (expecting %s)' % \
553 (keyword, type(val), kwtype)
554 if isinstance(val, FunctionType):
555 val = classmethod(val)
556 type.__setattr__(cls, keyword, val)
557
558 def _new_param(cls, name, pdesc):
559 # each param desc should be uniquely assigned to one variable
560 assert(not hasattr(pdesc, 'name'))
561 pdesc.name = name
562 cls._params[name] = pdesc
563 if hasattr(pdesc, 'default'):
564 cls._set_param(name, pdesc.default, pdesc)
565
566 def _set_param(cls, name, value, param):
567 assert(param.name == name)
568 try:
569 hr_value = value
570 value = param.convert(value)
571 except Exception, e:
572 msg = "%s\nError setting param %s.%s to %s\n" % \
573 (e, cls.__name__, name, value)
574 e.args = (msg, )
575 raise
576 cls._values[name] = value
577 # if param value is a SimObject, make it a child too, so that
578 # it gets cloned properly when the class is instantiated
579 if isSimObjectOrVector(value) and not value.has_parent():
580 cls._add_cls_child(name, value)
581 # update human-readable values of the param if it has a literal
582 # value and is not an object or proxy.
583 if not (isSimObjectOrVector(value) or\
584 isinstance(value, m5.proxy.BaseProxy)):
585 cls._hr_values[name] = hr_value
586
587 def _add_cls_child(cls, name, child):
588 # It's a little funky to have a class as a parent, but these
589 # objects should never be instantiated (only cloned, which
590 # clears the parent pointer), and this makes it clear that the
591 # object is not an orphan and can provide better error
592 # messages.
593 child.set_parent(cls, name)
594 cls._children[name] = child
595
596 def _new_port(cls, name, port):
597 # each port should be uniquely assigned to one variable
598 assert(not hasattr(port, 'name'))
599 port.name = name
600 cls._ports[name] = port
601
602 # same as _get_port_ref, effectively, but for classes
603 def _cls_get_port_ref(cls, attr):
604 # Return reference that can be assigned to another port
605 # via __setattr__. There is only ever one reference
606 # object per port, but we create them lazily here.
607 ref = cls._port_refs.get(attr)
608 if not ref:
609 ref = cls._ports[attr].makeRef(cls)
610 cls._port_refs[attr] = ref
611 return ref
612
613 # Set attribute (called on foo.attr = value when foo is an
614 # instance of class cls).
615 def __setattr__(cls, attr, value):
616 # normal processing for private attributes
617 if public_value(attr, value):
618 type.__setattr__(cls, attr, value)
619 return
620
621 if cls.keywords.has_key(attr):
622 cls._set_keyword(attr, value, cls.keywords[attr])
623 return
624
625 if cls._ports.has_key(attr):
626 cls._cls_get_port_ref(attr).connect(value)
627 return
628
629 if isSimObjectOrSequence(value) and cls._instantiated:
630 raise RuntimeError, \
631 "cannot set SimObject parameter '%s' after\n" \
632 " class %s has been instantiated or subclassed" \
633 % (attr, cls.__name__)
634
635 # check for param
636 param = cls._params.get(attr)
637 if param:
638 cls._set_param(attr, value, param)
639 return
640
641 if isSimObjectOrSequence(value):
642 # If RHS is a SimObject, it's an implicit child assignment.
643 cls._add_cls_child(attr, coerceSimObjectOrVector(value))
644 return
645
646 # no valid assignment... raise exception
647 raise AttributeError, \
648 "Class %s has no parameter \'%s\'" % (cls.__name__, attr)
649
650 def __getattr__(cls, attr):
651 if attr == 'cxx_class_path':
652 return cls.cxx_class.split('::')
653
654 if attr == 'cxx_class_name':
655 return cls.cxx_class_path[-1]
656
657 if attr == 'cxx_namespaces':
658 return cls.cxx_class_path[:-1]
659
660 if cls._values.has_key(attr):
661 return cls._values[attr]
662
663 if cls._children.has_key(attr):
664 return cls._children[attr]
665
666 raise AttributeError, \
667 "object '%s' has no attribute '%s'" % (cls.__name__, attr)
668
669 def __str__(cls):
670 return cls.__name__
671
672 # See ParamValue.cxx_predecls for description.
673 def cxx_predecls(cls, code):
674 code('#include "params/$cls.hh"')
675
|
| 676 def pybind_predecls(cls, code):
677 code('#include "${{cls.cxx_header}}"')
678
|
657 # See ParamValue.swig_predecls for description.
658 def swig_predecls(cls, code):
659 code('%import "python/_m5/param_$cls.i"')
660
661 # Hook for exporting additional C++ methods to Python via SWIG.
662 # Default is none, override using @classmethod in class definition.
663 def export_methods(cls, code):
664 pass
665
666 # Generate the code needed as a prerequisite for the C++ methods
667 # exported via export_methods() to be processed by SWIG.
668 # Typically generates one or more %include or %import statements.
669 # If any methods are exported, typically at least the C++ header
670 # declaring the relevant SimObject class must be included.
671 def export_method_swig_predecls(cls, code):
672 pass
673
674 # Generate the declaration for this object for wrapping with SWIG.
675 # Generates code that goes into a SWIG .i file. Called from
676 # src/SConscript.
677 def swig_decl(cls, code):
678 class_path = cls.cxx_class.split('::')
679 classname = class_path[-1]
680 namespaces = class_path[:-1]
681
682 # The 'local' attribute restricts us to the params declared in
683 # the object itself, not including inherited params (which
684 # will also be inherited from the base class's param struct
685 # here). Sort the params based on their key
686 params = map(lambda (k, v): v, sorted(cls._params.local.items()))
687 ports = cls._ports.local
688
689 code('%module(package="_m5") param_$cls')
690 code()
691 code('%{')
692 code('#include "sim/sim_object.hh"')
693 code('#include "params/$cls.hh"')
694 for param in params:
695 param.cxx_predecls(code)
696 code('#include "${{cls.cxx_header}}"')
697 code('''\
698/**
699 * This is a workaround for bug in swig. Prior to gcc 4.6.1 the STL
700 * headers like vector, string, etc. used to automatically pull in
701 * the cstddef header but starting with gcc 4.6.1 they no longer do.
702 * This leads to swig generated a file that does not compile so we
703 * explicitly include cstddef. Additionally, including version 2.0.4,
704 * swig uses ptrdiff_t without the std:: namespace prefix which is
705 * required with gcc 4.6.1. We explicitly provide access to it.
706 */
707#include <cstddef>
708using std::ptrdiff_t;
709''')
710 code('%}')
711 code()
712
713 for param in params:
714 param.swig_predecls(code)
715 cls.export_method_swig_predecls(code)
716
717 code()
718 if cls._base:
719 code('%import "python/_m5/param_${{cls._base}}.i"')
720 code()
721
722 for ns in namespaces:
723 code('namespace $ns {')
724
725 if namespaces:
726 code('// avoid name conflicts')
727 sep_string = '_COLONS_'
728 flat_name = sep_string.join(class_path)
729 code('%rename($flat_name) $classname;')
730
731 code()
732 code('// stop swig from creating/wrapping default ctor/dtor')
733 code('%nodefault $classname;')
734 code('class $classname')
735 if cls._base:
736 bases = [ cls._base.cxx_class ] + cls.cxx_bases
737 else:
738 bases = cls.cxx_bases
739 base_first = True
740 for base in bases:
741 if base_first:
742 code(' : public ${{base}}')
743 base_first = False
744 else:
745 code(' , public ${{base}}')
746
747 code('{')
748 code(' public:')
749 cls.export_methods(code)
750 code('};')
751
752 for ns in reversed(namespaces):
753 code('} // namespace $ns')
754
755 code()
756 code('%include "params/$cls.hh"')
757
| 679 # See ParamValue.swig_predecls for description.
680 def swig_predecls(cls, code):
681 code('%import "python/_m5/param_$cls.i"')
682
683 # Hook for exporting additional C++ methods to Python via SWIG.
684 # Default is none, override using @classmethod in class definition.
685 def export_methods(cls, code):
686 pass
687
688 # Generate the code needed as a prerequisite for the C++ methods
689 # exported via export_methods() to be processed by SWIG.
690 # Typically generates one or more %include or %import statements.
691 # If any methods are exported, typically at least the C++ header
692 # declaring the relevant SimObject class must be included.
693 def export_method_swig_predecls(cls, code):
694 pass
695
696 # Generate the declaration for this object for wrapping with SWIG.
697 # Generates code that goes into a SWIG .i file. Called from
698 # src/SConscript.
699 def swig_decl(cls, code):
700 class_path = cls.cxx_class.split('::')
701 classname = class_path[-1]
702 namespaces = class_path[:-1]
703
704 # The 'local' attribute restricts us to the params declared in
705 # the object itself, not including inherited params (which
706 # will also be inherited from the base class's param struct
707 # here). Sort the params based on their key
708 params = map(lambda (k, v): v, sorted(cls._params.local.items()))
709 ports = cls._ports.local
710
711 code('%module(package="_m5") param_$cls')
712 code()
713 code('%{')
714 code('#include "sim/sim_object.hh"')
715 code('#include "params/$cls.hh"')
716 for param in params:
717 param.cxx_predecls(code)
718 code('#include "${{cls.cxx_header}}"')
719 code('''\
720/**
721 * This is a workaround for bug in swig. Prior to gcc 4.6.1 the STL
722 * headers like vector, string, etc. used to automatically pull in
723 * the cstddef header but starting with gcc 4.6.1 they no longer do.
724 * This leads to swig generated a file that does not compile so we
725 * explicitly include cstddef. Additionally, including version 2.0.4,
726 * swig uses ptrdiff_t without the std:: namespace prefix which is
727 * required with gcc 4.6.1. We explicitly provide access to it.
728 */
729#include <cstddef>
730using std::ptrdiff_t;
731''')
732 code('%}')
733 code()
734
735 for param in params:
736 param.swig_predecls(code)
737 cls.export_method_swig_predecls(code)
738
739 code()
740 if cls._base:
741 code('%import "python/_m5/param_${{cls._base}}.i"')
742 code()
743
744 for ns in namespaces:
745 code('namespace $ns {')
746
747 if namespaces:
748 code('// avoid name conflicts')
749 sep_string = '_COLONS_'
750 flat_name = sep_string.join(class_path)
751 code('%rename($flat_name) $classname;')
752
753 code()
754 code('// stop swig from creating/wrapping default ctor/dtor')
755 code('%nodefault $classname;')
756 code('class $classname')
757 if cls._base:
758 bases = [ cls._base.cxx_class ] + cls.cxx_bases
759 else:
760 bases = cls.cxx_bases
761 base_first = True
762 for base in bases:
763 if base_first:
764 code(' : public ${{base}}')
765 base_first = False
766 else:
767 code(' , public ${{base}}')
768
769 code('{')
770 code(' public:')
771 cls.export_methods(code)
772 code('};')
773
774 for ns in reversed(namespaces):
775 code('} // namespace $ns')
776
777 code()
778 code('%include "params/$cls.hh"')
779
|
| 780 def pybind_decl(cls, code):
781 class_path = cls.cxx_class.split('::')
782 namespaces, classname = class_path[:-1], class_path[-1]
783 py_class_name = '_COLONS_'.join(class_path) if namespaces else \
784 classname;
|
758
| 785
|
| 786 # The 'local' attribute restricts us to the params declared in
787 # the object itself, not including inherited params (which
788 # will also be inherited from the base class's param struct
789 # here). Sort the params based on their key
790 params = map(lambda (k, v): v, sorted(cls._params.local.items()))
791 ports = cls._ports.local
792
793 code('''#include "pybind11/pybind11.h"
794#include "pybind11/stl.h"
795
796#include "sim/sim_object.hh"
797#include "params/$cls.hh"
798#include "sim/init.hh"
799#include "${{cls.cxx_header}}"
800
801''')
802
803 for param in params:
804 param.pybind_predecls(code)
805
806 code('''namespace py = pybind11;
807
808static void
809module_init(py::module &m_internal)
810{
811 py::module m = m_internal.def_submodule("param_${cls}");
812''')
813 code.indent()
814 if cls._base:
815 code('py::class_<${cls}Params, ${{cls._base.type}}Params>(m, ' \
816 '"${cls}Params")')
817 else:
818 code('py::class_<${cls}Params>(m, "${cls}Params")')
819
820 code.indent()
821 if not hasattr(cls, 'abstract') or not cls.abstract:
822 code('.def(py::init<>())')
823 code('.def("create", &${cls}Params::create)')
824
825 param_exports = cls.cxx_param_exports + [
826 PyBindProperty(k)
827 for k, v in sorted(cls._params.local.items())
828 ] + [
829 PyBindProperty("port_%s_connection_count" % port.name)
830 for port in ports.itervalues()
831 ]
832 for exp in param_exports:
833 exp.export(code, "%sParams" % cls)
834
835 code(';')
836 code()
837 code.dedent()
838
839 bases = [ cls._base.cxx_class ] + cls.cxx_bases if cls._base else \
840 cls.cxx_bases
841 if bases:
842 base_str = ", ".join(bases)
843 code('py::class_<${{cls.cxx_class}}, ${base_str}>(m, ' \
844 '"${py_class_name}")')
845 else:
846 code('py::class_<${{cls.cxx_class}}>(m, "${py_class_name}")')
847 code.indent()
848 for exp in cls.cxx_exports:
849 exp.export(code, cls.cxx_class)
850 code(';')
851 code.dedent()
852 code()
853 code.dedent()
854 code('}')
855 code()
856 code('static EmbeddedPyBind embed_obj("${0}", module_init, "${1}");',
857 cls, cls._base.type if cls._base else "")
858
859
|
759 # Generate the C++ declaration (.hh file) for this SimObject's
760 # param struct. Called from src/SConscript.
761 def cxx_param_decl(cls, code):
762 # The 'local' attribute restricts us to the params declared in
763 # the object itself, not including inherited params (which
764 # will also be inherited from the base class's param struct
765 # here). Sort the params based on their key
766 params = map(lambda (k, v): v, sorted(cls._params.local.items()))
767 ports = cls._ports.local
768 try:
769 ptypes = [p.ptype for p in params]
770 except:
771 print cls, p, p.ptype_str
772 print params
773 raise
774
775 class_path = cls._value_dict['cxx_class'].split('::')
776
777 code('''\
778#ifndef __PARAMS__${cls}__
779#define __PARAMS__${cls}__
780
781''')
782
| 860 # Generate the C++ declaration (.hh file) for this SimObject's
861 # param struct. Called from src/SConscript.
862 def cxx_param_decl(cls, code):
863 # The 'local' attribute restricts us to the params declared in
864 # the object itself, not including inherited params (which
865 # will also be inherited from the base class's param struct
866 # here). Sort the params based on their key
867 params = map(lambda (k, v): v, sorted(cls._params.local.items()))
868 ports = cls._ports.local
869 try:
870 ptypes = [p.ptype for p in params]
871 except:
872 print cls, p, p.ptype_str
873 print params
874 raise
875
876 class_path = cls._value_dict['cxx_class'].split('::')
877
878 code('''\
879#ifndef __PARAMS__${cls}__
880#define __PARAMS__${cls}__
881
882''')
883
|
| 884
885 # The base SimObject has a couple of params that get
886 # automatically set from Python without being declared through
887 # the normal Param mechanism; we slip them in here (needed
888 # predecls now, actual declarations below)
889 if cls == SimObject:
890 code('''#include <string>''')
891
|
783 # A forward class declaration is sufficient since we are just
784 # declaring a pointer.
785 for ns in class_path[:-1]:
786 code('namespace $ns {')
787 code('class $0;', class_path[-1])
788 for ns in reversed(class_path[:-1]):
789 code('} // namespace $ns')
790 code()
791
| 892 # A forward class declaration is sufficient since we are just
893 # declaring a pointer.
894 for ns in class_path[:-1]:
895 code('namespace $ns {')
896 code('class $0;', class_path[-1])
897 for ns in reversed(class_path[:-1]):
898 code('} // namespace $ns')
899 code()
900
|
792 # The base SimObject has a couple of params that get
793 # automatically set from Python without being declared through
794 # the normal Param mechanism; we slip them in here (needed
795 # predecls now, actual declarations below)
796 if cls == SimObject:
797 code('''
798#ifndef PY_VERSION
799struct PyObject;
800#endif
801
802#include <string>
803''')
| |
804 for param in params:
805 param.cxx_predecls(code)
806 for port in ports.itervalues():
807 port.cxx_predecls(code)
808 code()
809
810 if cls._base:
811 code('#include "params/${{cls._base.type}}.hh"')
812 code()
813
814 for ptype in ptypes:
815 if issubclass(ptype, Enum):
816 code('#include "enums/${{ptype.__name__}}.hh"')
817 code()
818
819 # now generate the actual param struct
820 code("struct ${cls}Params")
821 if cls._base:
822 code(" : public ${{cls._base.type}}Params")
823 code("{")
824 if not hasattr(cls, 'abstract') or not cls.abstract:
825 if 'type' in cls.__dict__:
826 code(" ${{cls.cxx_type}} create();")
827
828 code.indent()
829 if cls == SimObject:
830 code('''
831 SimObjectParams() {}
832 virtual ~SimObjectParams() {}
833
834 std::string name;
| 901 for param in params:
902 param.cxx_predecls(code)
903 for port in ports.itervalues():
904 port.cxx_predecls(code)
905 code()
906
907 if cls._base:
908 code('#include "params/${{cls._base.type}}.hh"')
909 code()
910
911 for ptype in ptypes:
912 if issubclass(ptype, Enum):
913 code('#include "enums/${{ptype.__name__}}.hh"')
914 code()
915
916 # now generate the actual param struct
917 code("struct ${cls}Params")
918 if cls._base:
919 code(" : public ${{cls._base.type}}Params")
920 code("{")
921 if not hasattr(cls, 'abstract') or not cls.abstract:
922 if 'type' in cls.__dict__:
923 code(" ${{cls.cxx_type}} create();")
924
925 code.indent()
926 if cls == SimObject:
927 code('''
928 SimObjectParams() {}
929 virtual ~SimObjectParams() {}
930
931 std::string name;
|
835 PyObject *pyobj;
| |
836 ''')
| 932 ''')
|
| 933
|
837 for param in params:
838 param.cxx_decl(code)
839 for port in ports.itervalues():
840 port.cxx_decl(code)
841
842 code.dedent()
843 code('};')
844
845 code()
846 code('#endif // __PARAMS__${cls}__')
847 return code
848
849 # Generate the C++ declaration/definition files for this SimObject's
850 # param struct to allow C++ initialisation
851 def cxx_config_param_file(cls, code, is_header):
852 createCxxConfigDirectoryEntryFile(code, cls.__name__, cls, is_header)
853 return code
854
855# This *temporary* definition is required to support calls from the
856# SimObject class definition to the MetaSimObject methods (in
857# particular _set_param, which gets called for parameters with default
858# values defined on the SimObject class itself). It will get
859# overridden by the permanent definition (which requires that
860# SimObject be defined) lower in this file.
861def isSimObjectOrVector(value):
862 return False
863
| 934 for param in params:
935 param.cxx_decl(code)
936 for port in ports.itervalues():
937 port.cxx_decl(code)
938
939 code.dedent()
940 code('};')
941
942 code()
943 code('#endif // __PARAMS__${cls}__')
944 return code
945
946 # Generate the C++ declaration/definition files for this SimObject's
947 # param struct to allow C++ initialisation
948 def cxx_config_param_file(cls, code, is_header):
949 createCxxConfigDirectoryEntryFile(code, cls.__name__, cls, is_header)
950 return code
951
952# This *temporary* definition is required to support calls from the
953# SimObject class definition to the MetaSimObject methods (in
954# particular _set_param, which gets called for parameters with default
955# values defined on the SimObject class itself). It will get
956# overridden by the permanent definition (which requires that
957# SimObject be defined) lower in this file.
958def isSimObjectOrVector(value):
959 return False
960
|
| 961def cxxMethod(*args, **kwargs):
962 """Decorator to export C++ functions to Python"""
963
964 def decorate(func):
965 name = func.func_name
966 override = kwargs.get("override", False)
967 cxx_name = kwargs.get("cxx_name", name)
968
969 args, varargs, keywords, defaults = inspect.getargspec(func)
970 if varargs or keywords:
971 raise ValueError("Wrapped methods must not contain variable " \
972 "arguments")
973
974 # Create tuples of (argument, default)
975 if defaults:
976 args = args[:-len(defaults)] + zip(args[-len(defaults):], defaults)
977 # Don't include self in the argument list to PyBind
978 args = args[1:]
979
980
981 @wraps(func)
982 def cxx_call(self, *args, **kwargs):
983 ccobj = self.getCCObject()
984 return getattr(ccobj, name)(*args, **kwargs)
985
986 @wraps(func)
987 def py_call(self, *args, **kwargs):
988 return self.func(*args, **kwargs)
989
990 f = py_call if override else cxx_call
991 f.__pybind = PyBindMethod(name, cxx_name=cxx_name, args=args)
992
993 return f
994
995 if len(args) == 0:
996 return decorate
997 elif len(args) == 1 and len(kwargs) == 0:
998 return decorate(*args)
999 else:
1000 raise TypeError("One argument and no kwargs, or only kwargs expected")
1001
|
864# This class holds information about each simobject parameter
865# that should be displayed on the command line for use in the
866# configuration system.
867class ParamInfo(object):
868 def __init__(self, type, desc, type_str, example, default_val, access_str):
869 self.type = type
870 self.desc = desc
871 self.type_str = type_str
872 self.example_str = example
873 self.default_val = default_val
874 # The string representation used to access this param through python.
875 # The method to access this parameter presented on the command line may
876 # be different, so this needs to be stored for later use.
877 self.access_str = access_str
878 self.created = True
879
880 # Make it so we can only set attributes at initialization time
881 # and effectively make this a const object.
882 def __setattr__(self, name, value):
883 if not "created" in self.__dict__:
884 self.__dict__[name] = value
885
886# The SimObject class is the root of the special hierarchy. Most of
887# the code in this class deals with the configuration hierarchy itself
888# (parent/child node relationships).
889class SimObject(object):
890 # Specify metaclass. Any class inheriting from SimObject will
891 # get this metaclass.
892 __metaclass__ = MetaSimObject
893 type = 'SimObject'
894 abstract = True
895
896 cxx_header = "sim/sim_object.hh"
897 cxx_bases = [ "Drainable", "Serializable" ]
898 eventq_index = Param.UInt32(Parent.eventq_index, "Event Queue Index")
899
900 @classmethod
901 def export_method_swig_predecls(cls, code):
902 code('''
903%include <std_string.i>
904
905%import "python/swig/drain.i"
906%import "python/swig/serialize.i"
907''')
908
909 @classmethod
910 def export_methods(cls, code):
911 code('''
912 void init();
913 void loadState(CheckpointIn &cp);
914 void initState();
915 void memInvalidate();
916 void memWriteback();
917 void regStats();
918 void resetStats();
919 void regProbePoints();
920 void regProbeListeners();
921 void startup();
922''')
923
| 1002# This class holds information about each simobject parameter
1003# that should be displayed on the command line for use in the
1004# configuration system.
1005class ParamInfo(object):
1006 def __init__(self, type, desc, type_str, example, default_val, access_str):
1007 self.type = type
1008 self.desc = desc
1009 self.type_str = type_str
1010 self.example_str = example
1011 self.default_val = default_val
1012 # The string representation used to access this param through python.
1013 # The method to access this parameter presented on the command line may
1014 # be different, so this needs to be stored for later use.
1015 self.access_str = access_str
1016 self.created = True
1017
1018 # Make it so we can only set attributes at initialization time
1019 # and effectively make this a const object.
1020 def __setattr__(self, name, value):
1021 if not "created" in self.__dict__:
1022 self.__dict__[name] = value
1023
1024# The SimObject class is the root of the special hierarchy. Most of
1025# the code in this class deals with the configuration hierarchy itself
1026# (parent/child node relationships).
1027class SimObject(object):
1028 # Specify metaclass. Any class inheriting from SimObject will
1029 # get this metaclass.
1030 __metaclass__ = MetaSimObject
1031 type = 'SimObject'
1032 abstract = True
1033
1034 cxx_header = "sim/sim_object.hh"
1035 cxx_bases = [ "Drainable", "Serializable" ]
1036 eventq_index = Param.UInt32(Parent.eventq_index, "Event Queue Index")
1037
1038 @classmethod
1039 def export_method_swig_predecls(cls, code):
1040 code('''
1041%include <std_string.i>
1042
1043%import "python/swig/drain.i"
1044%import "python/swig/serialize.i"
1045''')
1046
1047 @classmethod
1048 def export_methods(cls, code):
1049 code('''
1050 void init();
1051 void loadState(CheckpointIn &cp);
1052 void initState();
1053 void memInvalidate();
1054 void memWriteback();
1055 void regStats();
1056 void resetStats();
1057 void regProbePoints();
1058 void regProbeListeners();
1059 void startup();
1060''')
1061
|
| 1062 cxx_exports = [
1063 PyBindMethod("init"),
1064 PyBindMethod("initState"),
1065 PyBindMethod("memInvalidate"),
1066 PyBindMethod("memWriteback"),
1067 PyBindMethod("regStats"),
1068 PyBindMethod("resetStats"),
1069 PyBindMethod("regProbePoints"),
1070 PyBindMethod("regProbeListeners"),
1071 PyBindMethod("startup"),
1072 ]
1073
1074 cxx_param_exports = [
1075 PyBindProperty("name"),
1076 ]
1077
1078 @cxxMethod
1079 def loadState(self, cp):
1080 """Load SimObject state from a checkpoint"""
1081 pass
1082
|
924 # Returns a dict of all the option strings that can be
925 # generated as command line options for this simobject instance
926 # by tracing all reachable params in the top level instance and
927 # any children it contains.
928 def enumerateParams(self, flags_dict = {},
929 cmd_line_str = "", access_str = ""):
930 if hasattr(self, "_paramEnumed"):
931 print "Cycle detected enumerating params"
932 else:
933 self._paramEnumed = True
934 # Scan the children first to pick up all the objects in this SimObj
935 for keys in self._children:
936 child = self._children[keys]
937 next_cmdline_str = cmd_line_str + keys
938 next_access_str = access_str + keys
939 if not isSimObjectVector(child):
940 next_cmdline_str = next_cmdline_str + "."
941 next_access_str = next_access_str + "."
942 flags_dict = child.enumerateParams(flags_dict,
943 next_cmdline_str,
944 next_access_str)
945
946 # Go through the simple params in the simobject in this level
947 # of the simobject hierarchy and save information about the
948 # parameter to be used for generating and processing command line
949 # options to the simulator to set these parameters.
950 for keys,values in self._params.items():
951 if values.isCmdLineSettable():
952 type_str = ''
953 ex_str = values.example_str()
954 ptype = None
955 if isinstance(values, VectorParamDesc):
956 type_str = 'Vector_%s' % values.ptype_str
957 ptype = values
958 else:
959 type_str = '%s' % values.ptype_str
960 ptype = values.ptype
961
962 if keys in self._hr_values\
963 and keys in self._values\
964 and not isinstance(self._values[keys], m5.proxy.BaseProxy):
965 cmd_str = cmd_line_str + keys
966 acc_str = access_str + keys
967 flags_dict[cmd_str] = ParamInfo(ptype,
968 self._params[keys].desc, type_str, ex_str,
969 values.pretty_print(self._hr_values[keys]),
970 acc_str)
971 elif not keys in self._hr_values\
972 and not keys in self._values:
973 # Empty param
974 cmd_str = cmd_line_str + keys
975 acc_str = access_str + keys
976 flags_dict[cmd_str] = ParamInfo(ptype,
977 self._params[keys].desc,
978 type_str, ex_str, '', acc_str)
979
980 return flags_dict
981
982 # Initialize new instance. For objects with SimObject-valued
983 # children, we need to recursively clone the classes represented
984 # by those param values as well in a consistent "deep copy"-style
985 # fashion. That is, we want to make sure that each instance is
986 # cloned only once, and that if there are multiple references to
987 # the same original object, we end up with the corresponding
988 # cloned references all pointing to the same cloned instance.
989 def __init__(self, **kwargs):
990 ancestor = kwargs.get('_ancestor')
991 memo_dict = kwargs.get('_memo')
992 if memo_dict is None:
993 # prepare to memoize any recursively instantiated objects
994 memo_dict = {}
995 elif ancestor:
996 # memoize me now to avoid problems with recursive calls
997 memo_dict[ancestor] = self
998
999 if not ancestor:
1000 ancestor = self.__class__
1001 ancestor._instantiated = True
1002
1003 # initialize required attributes
1004 self._parent = None
1005 self._name = None
1006 self._ccObject = None # pointer to C++ object
1007 self._ccParams = None
1008 self._instantiated = False # really "cloned"
1009
1010 # Clone children specified at class level. No need for a
1011 # multidict here since we will be cloning everything.
1012 # Do children before parameter values so that children that
1013 # are also param values get cloned properly.
1014 self._children = {}
1015 for key,val in ancestor._children.iteritems():
1016 self.add_child(key, val(_memo=memo_dict))
1017
1018 # Inherit parameter values from class using multidict so
1019 # individual value settings can be overridden but we still
1020 # inherit late changes to non-overridden class values.
1021 self._values = multidict(ancestor._values)
1022 self._hr_values = multidict(ancestor._hr_values)
1023 # clone SimObject-valued parameters
1024 for key,val in ancestor._values.iteritems():
1025 val = tryAsSimObjectOrVector(val)
1026 if val is not None:
1027 self._values[key] = val(_memo=memo_dict)
1028
1029 # clone port references. no need to use a multidict here
1030 # since we will be creating new references for all ports.
1031 self._port_refs = {}
1032 for key,val in ancestor._port_refs.iteritems():
1033 self._port_refs[key] = val.clone(self, memo_dict)
1034 # apply attribute assignments from keyword args, if any
1035 for key,val in kwargs.iteritems():
1036 setattr(self, key, val)
1037
1038 # "Clone" the current instance by creating another instance of
1039 # this instance's class, but that inherits its parameter values
1040 # and port mappings from the current instance. If we're in a
1041 # "deep copy" recursive clone, check the _memo dict to see if
1042 # we've already cloned this instance.
1043 def __call__(self, **kwargs):
1044 memo_dict = kwargs.get('_memo')
1045 if memo_dict is None:
1046 # no memo_dict: must be top-level clone operation.
1047 # this is only allowed at the root of a hierarchy
1048 if self._parent:
1049 raise RuntimeError, "attempt to clone object %s " \
1050 "not at the root of a tree (parent = %s)" \
1051 % (self, self._parent)
1052 # create a new dict and use that.
1053 memo_dict = {}
1054 kwargs['_memo'] = memo_dict
1055 elif memo_dict.has_key(self):
1056 # clone already done & memoized
1057 return memo_dict[self]
1058 return self.__class__(_ancestor = self, **kwargs)
1059
1060 def _get_port_ref(self, attr):
1061 # Return reference that can be assigned to another port
1062 # via __setattr__. There is only ever one reference
1063 # object per port, but we create them lazily here.
1064 ref = self._port_refs.get(attr)
1065 if ref == None:
1066 ref = self._ports[attr].makeRef(self)
1067 self._port_refs[attr] = ref
1068 return ref
1069
1070 def __getattr__(self, attr):
1071 if self._ports.has_key(attr):
1072 return self._get_port_ref(attr)
1073
1074 if self._values.has_key(attr):
1075 return self._values[attr]
1076
1077 if self._children.has_key(attr):
1078 return self._children[attr]
1079
1080 # If the attribute exists on the C++ object, transparently
1081 # forward the reference there. This is typically used for
1082 # SWIG-wrapped methods such as init(), regStats(),
1083 # resetStats(), startup(), drain(), and
1084 # resume().
1085 if self._ccObject and hasattr(self._ccObject, attr):
1086 return getattr(self._ccObject, attr)
1087
1088 err_string = "object '%s' has no attribute '%s'" \
1089 % (self.__class__.__name__, attr)
1090
1091 if not self._ccObject:
1092 err_string += "\n (C++ object is not yet constructed," \
1093 " so wrapped C++ methods are unavailable.)"
1094
1095 raise AttributeError, err_string
1096
1097 # Set attribute (called on foo.attr = value when foo is an
1098 # instance of class cls).
1099 def __setattr__(self, attr, value):
1100 # normal processing for private attributes
1101 if attr.startswith('_'):
1102 object.__setattr__(self, attr, value)
1103 return
1104
1105 if self._ports.has_key(attr):
1106 # set up port connection
1107 self._get_port_ref(attr).connect(value)
1108 return
1109
1110 param = self._params.get(attr)
1111 if param:
1112 try:
1113 hr_value = value
1114 value = param.convert(value)
1115 except Exception, e:
1116 msg = "%s\nError setting param %s.%s to %s\n" % \
1117 (e, self.__class__.__name__, attr, value)
1118 e.args = (msg, )
1119 raise
1120 self._values[attr] = value
1121 # implicitly parent unparented objects assigned as params
1122 if isSimObjectOrVector(value) and not value.has_parent():
1123 self.add_child(attr, value)
1124 # set the human-readable value dict if this is a param
1125 # with a literal value and is not being set as an object
1126 # or proxy.
1127 if not (isSimObjectOrVector(value) or\
1128 isinstance(value, m5.proxy.BaseProxy)):
1129 self._hr_values[attr] = hr_value
1130
1131 return
1132
1133 # if RHS is a SimObject, it's an implicit child assignment
1134 if isSimObjectOrSequence(value):
1135 self.add_child(attr, value)
1136 return
1137
1138 # no valid assignment... raise exception
1139 raise AttributeError, "Class %s has no parameter %s" \
1140 % (self.__class__.__name__, attr)
1141
1142
1143 # this hack allows tacking a '[0]' onto parameters that may or may
1144 # not be vectors, and always getting the first element (e.g. cpus)
1145 def __getitem__(self, key):
1146 if key == 0:
1147 return self
1148 raise IndexError, "Non-zero index '%s' to SimObject" % key
1149
1150 # this hack allows us to iterate over a SimObject that may
1151 # not be a vector, so we can call a loop over it and get just one
1152 # element.
1153 def __len__(self):
1154 return 1
1155
1156 # Also implemented by SimObjectVector
1157 def clear_parent(self, old_parent):
1158 assert self._parent is old_parent
1159 self._parent = None
1160
1161 # Also implemented by SimObjectVector
1162 def set_parent(self, parent, name):
1163 self._parent = parent
1164 self._name = name
1165
1166 # Return parent object of this SimObject, not implemented by SimObjectVector
1167 # because the elements in a SimObjectVector may not share the same parent
1168 def get_parent(self):
1169 return self._parent
1170
1171 # Also implemented by SimObjectVector
1172 def get_name(self):
1173 return self._name
1174
1175 # Also implemented by SimObjectVector
1176 def has_parent(self):
1177 return self._parent is not None
1178
1179 # clear out child with given name. This code is not likely to be exercised.
1180 # See comment in add_child.
1181 def clear_child(self, name):
1182 child = self._children[name]
1183 child.clear_parent(self)
1184 del self._children[name]
1185
1186 # Add a new child to this object.
1187 def add_child(self, name, child):
1188 child = coerceSimObjectOrVector(child)
1189 if child.has_parent():
1190 warn("add_child('%s'): child '%s' already has parent", name,
1191 child.get_name())
1192 if self._children.has_key(name):
1193 # This code path had an undiscovered bug that would make it fail
1194 # at runtime. It had been here for a long time and was only
1195 # exposed by a buggy script. Changes here will probably not be
1196 # exercised without specialized testing.
1197 self.clear_child(name)
1198 child.set_parent(self, name)
1199 self._children[name] = child
1200
1201 # Take SimObject-valued parameters that haven't been explicitly
1202 # assigned as children and make them children of the object that
1203 # they were assigned to as a parameter value. This guarantees
1204 # that when we instantiate all the parameter objects we're still
1205 # inside the configuration hierarchy.
1206 def adoptOrphanParams(self):
1207 for key,val in self._values.iteritems():
1208 if not isSimObjectVector(val) and isSimObjectSequence(val):
1209 # need to convert raw SimObject sequences to
1210 # SimObjectVector class so we can call has_parent()
1211 val = SimObjectVector(val)
1212 self._values[key] = val
1213 if isSimObjectOrVector(val) and not val.has_parent():
1214 warn("%s adopting orphan SimObject param '%s'", self, key)
1215 self.add_child(key, val)
1216
1217 def path(self):
1218 if not self._parent:
1219 return '<orphan %s>' % self.__class__
1220 elif isinstance(self._parent, MetaSimObject):
1221 return str(self.__class__)
1222
1223 ppath = self._parent.path()
1224 if ppath == 'root':
1225 return self._name
1226 return ppath + "." + self._name
1227
1228 def __str__(self):
1229 return self.path()
1230
1231 def config_value(self):
1232 return self.path()
1233
1234 def ini_str(self):
1235 return self.path()
1236
1237 def find_any(self, ptype):
1238 if isinstance(self, ptype):
1239 return self, True
1240
1241 found_obj = None
1242 for child in self._children.itervalues():
1243 visited = False
1244 if hasattr(child, '_visited'):
1245 visited = getattr(child, '_visited')
1246
1247 if isinstance(child, ptype) and not visited:
1248 if found_obj != None and child != found_obj:
1249 raise AttributeError, \
1250 'parent.any matched more than one: %s %s' % \
1251 (found_obj.path, child.path)
1252 found_obj = child
1253 # search param space
1254 for pname,pdesc in self._params.iteritems():
1255 if issubclass(pdesc.ptype, ptype):
1256 match_obj = self._values[pname]
1257 if found_obj != None and found_obj != match_obj:
1258 raise AttributeError, \
1259 'parent.any matched more than one: %s and %s' % (found_obj.path, match_obj.path)
1260 found_obj = match_obj
1261 return found_obj, found_obj != None
1262
1263 def find_all(self, ptype):
1264 all = {}
1265 # search children
1266 for child in self._children.itervalues():
1267 # a child could be a list, so ensure we visit each item
1268 if isinstance(child, list):
1269 children = child
1270 else:
1271 children = [child]
1272
1273 for child in children:
1274 if isinstance(child, ptype) and not isproxy(child) and \
1275 not isNullPointer(child):
1276 all[child] = True
1277 if isSimObject(child):
1278 # also add results from the child itself
1279 child_all, done = child.find_all(ptype)
1280 all.update(dict(zip(child_all, [done] * len(child_all))))
1281 # search param space
1282 for pname,pdesc in self._params.iteritems():
1283 if issubclass(pdesc.ptype, ptype):
1284 match_obj = self._values[pname]
1285 if not isproxy(match_obj) and not isNullPointer(match_obj):
1286 all[match_obj] = True
1287 # Also make sure to sort the keys based on the objects' path to
1288 # ensure that the order is the same on all hosts
1289 return sorted(all.keys(), key = lambda o: o.path()), True
1290
1291 def unproxy(self, base):
1292 return self
1293
1294 def unproxyParams(self):
1295 for param in self._params.iterkeys():
1296 value = self._values.get(param)
1297 if value != None and isproxy(value):
1298 try:
1299 value = value.unproxy(self)
1300 except:
1301 print "Error in unproxying param '%s' of %s" % \
1302 (param, self.path())
1303 raise
1304 setattr(self, param, value)
1305
1306 # Unproxy ports in sorted order so that 'append' operations on
1307 # vector ports are done in a deterministic fashion.
1308 port_names = self._ports.keys()
1309 port_names.sort()
1310 for port_name in port_names:
1311 port = self._port_refs.get(port_name)
1312 if port != None:
1313 port.unproxy(self)
1314
1315 def print_ini(self, ini_file):
1316 print >>ini_file, '[' + self.path() + ']' # .ini section header
1317
1318 instanceDict[self.path()] = self
1319
1320 if hasattr(self, 'type'):
1321 print >>ini_file, 'type=%s' % self.type
1322
1323 if len(self._children.keys()):
1324 print >>ini_file, 'children=%s' % \
1325 ' '.join(self._children[n].get_name() \
1326 for n in sorted(self._children.keys()))
1327
1328 for param in sorted(self._params.keys()):
1329 value = self._values.get(param)
1330 if value != None:
1331 print >>ini_file, '%s=%s' % (param,
1332 self._values[param].ini_str())
1333
1334 for port_name in sorted(self._ports.keys()):
1335 port = self._port_refs.get(port_name, None)
1336 if port != None:
1337 print >>ini_file, '%s=%s' % (port_name, port.ini_str())
1338
1339 print >>ini_file # blank line between objects
1340
1341 # generate a tree of dictionaries expressing all the parameters in the
1342 # instantiated system for use by scripts that want to do power, thermal
1343 # visualization, and other similar tasks
1344 def get_config_as_dict(self):
1345 d = attrdict()
1346 if hasattr(self, 'type'):
1347 d.type = self.type
1348 if hasattr(self, 'cxx_class'):
1349 d.cxx_class = self.cxx_class
1350 # Add the name and path of this object to be able to link to
1351 # the stats
1352 d.name = self.get_name()
1353 d.path = self.path()
1354
1355 for param in sorted(self._params.keys()):
1356 value = self._values.get(param)
1357 if value != None:
1358 d[param] = value.config_value()
1359
1360 for n in sorted(self._children.keys()):
1361 child = self._children[n]
1362 # Use the name of the attribute (and not get_name()) as
1363 # the key in the JSON dictionary to capture the hierarchy
1364 # in the Python code that assembled this system
1365 d[n] = child.get_config_as_dict()
1366
1367 for port_name in sorted(self._ports.keys()):
1368 port = self._port_refs.get(port_name, None)
1369 if port != None:
1370 # Represent each port with a dictionary containing the
1371 # prominent attributes
1372 d[port_name] = port.get_config_as_dict()
1373
1374 return d
1375
1376 def getCCParams(self):
1377 if self._ccParams:
1378 return self._ccParams
1379
1380 cc_params_struct = getattr(m5.internal.params, '%sParams' % self.type)
1381 cc_params = cc_params_struct()
| 1083 # Returns a dict of all the option strings that can be
1084 # generated as command line options for this simobject instance
1085 # by tracing all reachable params in the top level instance and
1086 # any children it contains.
1087 def enumerateParams(self, flags_dict = {},
1088 cmd_line_str = "", access_str = ""):
1089 if hasattr(self, "_paramEnumed"):
1090 print "Cycle detected enumerating params"
1091 else:
1092 self._paramEnumed = True
1093 # Scan the children first to pick up all the objects in this SimObj
1094 for keys in self._children:
1095 child = self._children[keys]
1096 next_cmdline_str = cmd_line_str + keys
1097 next_access_str = access_str + keys
1098 if not isSimObjectVector(child):
1099 next_cmdline_str = next_cmdline_str + "."
1100 next_access_str = next_access_str + "."
1101 flags_dict = child.enumerateParams(flags_dict,
1102 next_cmdline_str,
1103 next_access_str)
1104
1105 # Go through the simple params in the simobject in this level
1106 # of the simobject hierarchy and save information about the
1107 # parameter to be used for generating and processing command line
1108 # options to the simulator to set these parameters.
1109 for keys,values in self._params.items():
1110 if values.isCmdLineSettable():
1111 type_str = ''
1112 ex_str = values.example_str()
1113 ptype = None
1114 if isinstance(values, VectorParamDesc):
1115 type_str = 'Vector_%s' % values.ptype_str
1116 ptype = values
1117 else:
1118 type_str = '%s' % values.ptype_str
1119 ptype = values.ptype
1120
1121 if keys in self._hr_values\
1122 and keys in self._values\
1123 and not isinstance(self._values[keys], m5.proxy.BaseProxy):
1124 cmd_str = cmd_line_str + keys
1125 acc_str = access_str + keys
1126 flags_dict[cmd_str] = ParamInfo(ptype,
1127 self._params[keys].desc, type_str, ex_str,
1128 values.pretty_print(self._hr_values[keys]),
1129 acc_str)
1130 elif not keys in self._hr_values\
1131 and not keys in self._values:
1132 # Empty param
1133 cmd_str = cmd_line_str + keys
1134 acc_str = access_str + keys
1135 flags_dict[cmd_str] = ParamInfo(ptype,
1136 self._params[keys].desc,
1137 type_str, ex_str, '', acc_str)
1138
1139 return flags_dict
1140
1141 # Initialize new instance. For objects with SimObject-valued
1142 # children, we need to recursively clone the classes represented
1143 # by those param values as well in a consistent "deep copy"-style
1144 # fashion. That is, we want to make sure that each instance is
1145 # cloned only once, and that if there are multiple references to
1146 # the same original object, we end up with the corresponding
1147 # cloned references all pointing to the same cloned instance.
1148 def __init__(self, **kwargs):
1149 ancestor = kwargs.get('_ancestor')
1150 memo_dict = kwargs.get('_memo')
1151 if memo_dict is None:
1152 # prepare to memoize any recursively instantiated objects
1153 memo_dict = {}
1154 elif ancestor:
1155 # memoize me now to avoid problems with recursive calls
1156 memo_dict[ancestor] = self
1157
1158 if not ancestor:
1159 ancestor = self.__class__
1160 ancestor._instantiated = True
1161
1162 # initialize required attributes
1163 self._parent = None
1164 self._name = None
1165 self._ccObject = None # pointer to C++ object
1166 self._ccParams = None
1167 self._instantiated = False # really "cloned"
1168
1169 # Clone children specified at class level. No need for a
1170 # multidict here since we will be cloning everything.
1171 # Do children before parameter values so that children that
1172 # are also param values get cloned properly.
1173 self._children = {}
1174 for key,val in ancestor._children.iteritems():
1175 self.add_child(key, val(_memo=memo_dict))
1176
1177 # Inherit parameter values from class using multidict so
1178 # individual value settings can be overridden but we still
1179 # inherit late changes to non-overridden class values.
1180 self._values = multidict(ancestor._values)
1181 self._hr_values = multidict(ancestor._hr_values)
1182 # clone SimObject-valued parameters
1183 for key,val in ancestor._values.iteritems():
1184 val = tryAsSimObjectOrVector(val)
1185 if val is not None:
1186 self._values[key] = val(_memo=memo_dict)
1187
1188 # clone port references. no need to use a multidict here
1189 # since we will be creating new references for all ports.
1190 self._port_refs = {}
1191 for key,val in ancestor._port_refs.iteritems():
1192 self._port_refs[key] = val.clone(self, memo_dict)
1193 # apply attribute assignments from keyword args, if any
1194 for key,val in kwargs.iteritems():
1195 setattr(self, key, val)
1196
1197 # "Clone" the current instance by creating another instance of
1198 # this instance's class, but that inherits its parameter values
1199 # and port mappings from the current instance. If we're in a
1200 # "deep copy" recursive clone, check the _memo dict to see if
1201 # we've already cloned this instance.
1202 def __call__(self, **kwargs):
1203 memo_dict = kwargs.get('_memo')
1204 if memo_dict is None:
1205 # no memo_dict: must be top-level clone operation.
1206 # this is only allowed at the root of a hierarchy
1207 if self._parent:
1208 raise RuntimeError, "attempt to clone object %s " \
1209 "not at the root of a tree (parent = %s)" \
1210 % (self, self._parent)
1211 # create a new dict and use that.
1212 memo_dict = {}
1213 kwargs['_memo'] = memo_dict
1214 elif memo_dict.has_key(self):
1215 # clone already done & memoized
1216 return memo_dict[self]
1217 return self.__class__(_ancestor = self, **kwargs)
1218
1219 def _get_port_ref(self, attr):
1220 # Return reference that can be assigned to another port
1221 # via __setattr__. There is only ever one reference
1222 # object per port, but we create them lazily here.
1223 ref = self._port_refs.get(attr)
1224 if ref == None:
1225 ref = self._ports[attr].makeRef(self)
1226 self._port_refs[attr] = ref
1227 return ref
1228
1229 def __getattr__(self, attr):
1230 if self._ports.has_key(attr):
1231 return self._get_port_ref(attr)
1232
1233 if self._values.has_key(attr):
1234 return self._values[attr]
1235
1236 if self._children.has_key(attr):
1237 return self._children[attr]
1238
1239 # If the attribute exists on the C++ object, transparently
1240 # forward the reference there. This is typically used for
1241 # SWIG-wrapped methods such as init(), regStats(),
1242 # resetStats(), startup(), drain(), and
1243 # resume().
1244 if self._ccObject and hasattr(self._ccObject, attr):
1245 return getattr(self._ccObject, attr)
1246
1247 err_string = "object '%s' has no attribute '%s'" \
1248 % (self.__class__.__name__, attr)
1249
1250 if not self._ccObject:
1251 err_string += "\n (C++ object is not yet constructed," \
1252 " so wrapped C++ methods are unavailable.)"
1253
1254 raise AttributeError, err_string
1255
1256 # Set attribute (called on foo.attr = value when foo is an
1257 # instance of class cls).
1258 def __setattr__(self, attr, value):
1259 # normal processing for private attributes
1260 if attr.startswith('_'):
1261 object.__setattr__(self, attr, value)
1262 return
1263
1264 if self._ports.has_key(attr):
1265 # set up port connection
1266 self._get_port_ref(attr).connect(value)
1267 return
1268
1269 param = self._params.get(attr)
1270 if param:
1271 try:
1272 hr_value = value
1273 value = param.convert(value)
1274 except Exception, e:
1275 msg = "%s\nError setting param %s.%s to %s\n" % \
1276 (e, self.__class__.__name__, attr, value)
1277 e.args = (msg, )
1278 raise
1279 self._values[attr] = value
1280 # implicitly parent unparented objects assigned as params
1281 if isSimObjectOrVector(value) and not value.has_parent():
1282 self.add_child(attr, value)
1283 # set the human-readable value dict if this is a param
1284 # with a literal value and is not being set as an object
1285 # or proxy.
1286 if not (isSimObjectOrVector(value) or\
1287 isinstance(value, m5.proxy.BaseProxy)):
1288 self._hr_values[attr] = hr_value
1289
1290 return
1291
1292 # if RHS is a SimObject, it's an implicit child assignment
1293 if isSimObjectOrSequence(value):
1294 self.add_child(attr, value)
1295 return
1296
1297 # no valid assignment... raise exception
1298 raise AttributeError, "Class %s has no parameter %s" \
1299 % (self.__class__.__name__, attr)
1300
1301
1302 # this hack allows tacking a '[0]' onto parameters that may or may
1303 # not be vectors, and always getting the first element (e.g. cpus)
1304 def __getitem__(self, key):
1305 if key == 0:
1306 return self
1307 raise IndexError, "Non-zero index '%s' to SimObject" % key
1308
1309 # this hack allows us to iterate over a SimObject that may
1310 # not be a vector, so we can call a loop over it and get just one
1311 # element.
1312 def __len__(self):
1313 return 1
1314
1315 # Also implemented by SimObjectVector
1316 def clear_parent(self, old_parent):
1317 assert self._parent is old_parent
1318 self._parent = None
1319
1320 # Also implemented by SimObjectVector
1321 def set_parent(self, parent, name):
1322 self._parent = parent
1323 self._name = name
1324
1325 # Return parent object of this SimObject, not implemented by SimObjectVector
1326 # because the elements in a SimObjectVector may not share the same parent
1327 def get_parent(self):
1328 return self._parent
1329
1330 # Also implemented by SimObjectVector
1331 def get_name(self):
1332 return self._name
1333
1334 # Also implemented by SimObjectVector
1335 def has_parent(self):
1336 return self._parent is not None
1337
1338 # clear out child with given name. This code is not likely to be exercised.
1339 # See comment in add_child.
1340 def clear_child(self, name):
1341 child = self._children[name]
1342 child.clear_parent(self)
1343 del self._children[name]
1344
1345 # Add a new child to this object.
1346 def add_child(self, name, child):
1347 child = coerceSimObjectOrVector(child)
1348 if child.has_parent():
1349 warn("add_child('%s'): child '%s' already has parent", name,
1350 child.get_name())
1351 if self._children.has_key(name):
1352 # This code path had an undiscovered bug that would make it fail
1353 # at runtime. It had been here for a long time and was only
1354 # exposed by a buggy script. Changes here will probably not be
1355 # exercised without specialized testing.
1356 self.clear_child(name)
1357 child.set_parent(self, name)
1358 self._children[name] = child
1359
1360 # Take SimObject-valued parameters that haven't been explicitly
1361 # assigned as children and make them children of the object that
1362 # they were assigned to as a parameter value. This guarantees
1363 # that when we instantiate all the parameter objects we're still
1364 # inside the configuration hierarchy.
1365 def adoptOrphanParams(self):
1366 for key,val in self._values.iteritems():
1367 if not isSimObjectVector(val) and isSimObjectSequence(val):
1368 # need to convert raw SimObject sequences to
1369 # SimObjectVector class so we can call has_parent()
1370 val = SimObjectVector(val)
1371 self._values[key] = val
1372 if isSimObjectOrVector(val) and not val.has_parent():
1373 warn("%s adopting orphan SimObject param '%s'", self, key)
1374 self.add_child(key, val)
1375
1376 def path(self):
1377 if not self._parent:
1378 return '<orphan %s>' % self.__class__
1379 elif isinstance(self._parent, MetaSimObject):
1380 return str(self.__class__)
1381
1382 ppath = self._parent.path()
1383 if ppath == 'root':
1384 return self._name
1385 return ppath + "." + self._name
1386
1387 def __str__(self):
1388 return self.path()
1389
1390 def config_value(self):
1391 return self.path()
1392
1393 def ini_str(self):
1394 return self.path()
1395
1396 def find_any(self, ptype):
1397 if isinstance(self, ptype):
1398 return self, True
1399
1400 found_obj = None
1401 for child in self._children.itervalues():
1402 visited = False
1403 if hasattr(child, '_visited'):
1404 visited = getattr(child, '_visited')
1405
1406 if isinstance(child, ptype) and not visited:
1407 if found_obj != None and child != found_obj:
1408 raise AttributeError, \
1409 'parent.any matched more than one: %s %s' % \
1410 (found_obj.path, child.path)
1411 found_obj = child
1412 # search param space
1413 for pname,pdesc in self._params.iteritems():
1414 if issubclass(pdesc.ptype, ptype):
1415 match_obj = self._values[pname]
1416 if found_obj != None and found_obj != match_obj:
1417 raise AttributeError, \
1418 'parent.any matched more than one: %s and %s' % (found_obj.path, match_obj.path)
1419 found_obj = match_obj
1420 return found_obj, found_obj != None
1421
1422 def find_all(self, ptype):
1423 all = {}
1424 # search children
1425 for child in self._children.itervalues():
1426 # a child could be a list, so ensure we visit each item
1427 if isinstance(child, list):
1428 children = child
1429 else:
1430 children = [child]
1431
1432 for child in children:
1433 if isinstance(child, ptype) and not isproxy(child) and \
1434 not isNullPointer(child):
1435 all[child] = True
1436 if isSimObject(child):
1437 # also add results from the child itself
1438 child_all, done = child.find_all(ptype)
1439 all.update(dict(zip(child_all, [done] * len(child_all))))
1440 # search param space
1441 for pname,pdesc in self._params.iteritems():
1442 if issubclass(pdesc.ptype, ptype):
1443 match_obj = self._values[pname]
1444 if not isproxy(match_obj) and not isNullPointer(match_obj):
1445 all[match_obj] = True
1446 # Also make sure to sort the keys based on the objects' path to
1447 # ensure that the order is the same on all hosts
1448 return sorted(all.keys(), key = lambda o: o.path()), True
1449
1450 def unproxy(self, base):
1451 return self
1452
1453 def unproxyParams(self):
1454 for param in self._params.iterkeys():
1455 value = self._values.get(param)
1456 if value != None and isproxy(value):
1457 try:
1458 value = value.unproxy(self)
1459 except:
1460 print "Error in unproxying param '%s' of %s" % \
1461 (param, self.path())
1462 raise
1463 setattr(self, param, value)
1464
1465 # Unproxy ports in sorted order so that 'append' operations on
1466 # vector ports are done in a deterministic fashion.
1467 port_names = self._ports.keys()
1468 port_names.sort()
1469 for port_name in port_names:
1470 port = self._port_refs.get(port_name)
1471 if port != None:
1472 port.unproxy(self)
1473
1474 def print_ini(self, ini_file):
1475 print >>ini_file, '[' + self.path() + ']' # .ini section header
1476
1477 instanceDict[self.path()] = self
1478
1479 if hasattr(self, 'type'):
1480 print >>ini_file, 'type=%s' % self.type
1481
1482 if len(self._children.keys()):
1483 print >>ini_file, 'children=%s' % \
1484 ' '.join(self._children[n].get_name() \
1485 for n in sorted(self._children.keys()))
1486
1487 for param in sorted(self._params.keys()):
1488 value = self._values.get(param)
1489 if value != None:
1490 print >>ini_file, '%s=%s' % (param,
1491 self._values[param].ini_str())
1492
1493 for port_name in sorted(self._ports.keys()):
1494 port = self._port_refs.get(port_name, None)
1495 if port != None:
1496 print >>ini_file, '%s=%s' % (port_name, port.ini_str())
1497
1498 print >>ini_file # blank line between objects
1499
1500 # generate a tree of dictionaries expressing all the parameters in the
1501 # instantiated system for use by scripts that want to do power, thermal
1502 # visualization, and other similar tasks
1503 def get_config_as_dict(self):
1504 d = attrdict()
1505 if hasattr(self, 'type'):
1506 d.type = self.type
1507 if hasattr(self, 'cxx_class'):
1508 d.cxx_class = self.cxx_class
1509 # Add the name and path of this object to be able to link to
1510 # the stats
1511 d.name = self.get_name()
1512 d.path = self.path()
1513
1514 for param in sorted(self._params.keys()):
1515 value = self._values.get(param)
1516 if value != None:
1517 d[param] = value.config_value()
1518
1519 for n in sorted(self._children.keys()):
1520 child = self._children[n]
1521 # Use the name of the attribute (and not get_name()) as
1522 # the key in the JSON dictionary to capture the hierarchy
1523 # in the Python code that assembled this system
1524 d[n] = child.get_config_as_dict()
1525
1526 for port_name in sorted(self._ports.keys()):
1527 port = self._port_refs.get(port_name, None)
1528 if port != None:
1529 # Represent each port with a dictionary containing the
1530 # prominent attributes
1531 d[port_name] = port.get_config_as_dict()
1532
1533 return d
1534
1535 def getCCParams(self):
1536 if self._ccParams:
1537 return self._ccParams
1538
1539 cc_params_struct = getattr(m5.internal.params, '%sParams' % self.type)
1540 cc_params = cc_params_struct()
|
1382 cc_params.pyobj = self
| |
1383 cc_params.name = str(self)
1384
1385 param_names = self._params.keys()
1386 param_names.sort()
1387 for param in param_names:
1388 value = self._values.get(param)
1389 if value is None:
1390 fatal("%s.%s without default or user set value",
1391 self.path(), param)
1392
1393 value = value.getValue()
1394 if isinstance(self._params[param], VectorParamDesc):
1395 assert isinstance(value, list)
1396 vec = getattr(cc_params, param)
1397 assert not len(vec)
| 1541 cc_params.name = str(self)
1542
1543 param_names = self._params.keys()
1544 param_names.sort()
1545 for param in param_names:
1546 value = self._values.get(param)
1547 if value is None:
1548 fatal("%s.%s without default or user set value",
1549 self.path(), param)
1550
1551 value = value.getValue()
1552 if isinstance(self._params[param], VectorParamDesc):
1553 assert isinstance(value, list)
1554 vec = getattr(cc_params, param)
1555 assert not len(vec)
|
1398 for v in value:
1399 vec.append(v)
| 1556 setattr(cc_params, param, list(value))
|
1400 else:
1401 setattr(cc_params, param, value)
1402
1403 port_names = self._ports.keys()
1404 port_names.sort()
1405 for port_name in port_names:
1406 port = self._port_refs.get(port_name, None)
1407 if port != None:
1408 port_count = len(port)
1409 else:
1410 port_count = 0
1411 setattr(cc_params, 'port_' + port_name + '_connection_count',
1412 port_count)
1413 self._ccParams = cc_params
1414 return self._ccParams
1415
1416 # Get C++ object corresponding to this object, calling C++ if
1417 # necessary to construct it. Does *not* recursively create
1418 # children.
1419 def getCCObject(self):
1420 if not self._ccObject:
1421 # Make sure this object is in the configuration hierarchy
1422 if not self._parent and not isRoot(self):
1423 raise RuntimeError, "Attempt to instantiate orphan node"
1424 # Cycles in the configuration hierarchy are not supported. This
1425 # will catch the resulting recursion and stop.
1426 self._ccObject = -1
1427 if not self.abstract:
1428 params = self.getCCParams()
1429 self._ccObject = params.create()
1430 elif self._ccObject == -1:
1431 raise RuntimeError, "%s: Cycle found in configuration hierarchy." \
1432 % self.path()
1433 return self._ccObject
1434
1435 def descendants(self):
1436 yield self
1437 # The order of the dict is implementation dependent, so sort
1438 # it based on the key (name) to ensure the order is the same
1439 # on all hosts
1440 for (name, child) in sorted(self._children.iteritems()):
1441 for obj in child.descendants():
1442 yield obj
1443
1444 # Call C++ to create C++ object corresponding to this object
1445 def createCCObject(self):
1446 self.getCCParams()
1447 self.getCCObject() # force creation
1448
1449 def getValue(self):
1450 return self.getCCObject()
1451
1452 # Create C++ port connections corresponding to the connections in
1453 # _port_refs
1454 def connectPorts(self):
1455 # Sort the ports based on their attribute name to ensure the
1456 # order is the same on all hosts
1457 for (attr, portRef) in sorted(self._port_refs.iteritems()):
1458 portRef.ccConnect()
1459
1460# Function to provide to C++ so it can look up instances based on paths
1461def resolveSimObject(name):
1462 obj = instanceDict[name]
1463 return obj.getCCObject()
1464
1465def isSimObject(value):
1466 return isinstance(value, SimObject)
1467
1468def isSimObjectClass(value):
1469 return issubclass(value, SimObject)
1470
1471def isSimObjectVector(value):
1472 return isinstance(value, SimObjectVector)
1473
1474def isSimObjectSequence(value):
1475 if not isinstance(value, (list, tuple)) or len(value) == 0:
1476 return False
1477
1478 for val in value:
1479 if not isNullPointer(val) and not isSimObject(val):
1480 return False
1481
1482 return True
1483
1484def isSimObjectOrSequence(value):
1485 return isSimObject(value) or isSimObjectSequence(value)
1486
1487def isRoot(obj):
1488 from m5.objects import Root
1489 return obj and obj is Root.getInstance()
1490
1491def isSimObjectOrVector(value):
1492 return isSimObject(value) or isSimObjectVector(value)
1493
1494def tryAsSimObjectOrVector(value):
1495 if isSimObjectOrVector(value):
1496 return value
1497 if isSimObjectSequence(value):
1498 return SimObjectVector(value)
1499 return None
1500
1501def coerceSimObjectOrVector(value):
1502 value = tryAsSimObjectOrVector(value)
1503 if value is None:
1504 raise TypeError, "SimObject or SimObjectVector expected"
1505 return value
1506
1507baseClasses = allClasses.copy()
1508baseInstances = instanceDict.copy()
1509
1510def clear():
1511 global allClasses, instanceDict, noCxxHeader
1512
1513 allClasses = baseClasses.copy()
1514 instanceDict = baseInstances.copy()
1515 noCxxHeader = False
1516
1517# __all__ defines the list of symbols that get exported when
1518# 'from config import *' is invoked. Try to keep this reasonably
1519# short to avoid polluting other namespaces.
| 1557 else:
1558 setattr(cc_params, param, value)
1559
1560 port_names = self._ports.keys()
1561 port_names.sort()
1562 for port_name in port_names:
1563 port = self._port_refs.get(port_name, None)
1564 if port != None:
1565 port_count = len(port)
1566 else:
1567 port_count = 0
1568 setattr(cc_params, 'port_' + port_name + '_connection_count',
1569 port_count)
1570 self._ccParams = cc_params
1571 return self._ccParams
1572
1573 # Get C++ object corresponding to this object, calling C++ if
1574 # necessary to construct it. Does *not* recursively create
1575 # children.
1576 def getCCObject(self):
1577 if not self._ccObject:
1578 # Make sure this object is in the configuration hierarchy
1579 if not self._parent and not isRoot(self):
1580 raise RuntimeError, "Attempt to instantiate orphan node"
1581 # Cycles in the configuration hierarchy are not supported. This
1582 # will catch the resulting recursion and stop.
1583 self._ccObject = -1
1584 if not self.abstract:
1585 params = self.getCCParams()
1586 self._ccObject = params.create()
1587 elif self._ccObject == -1:
1588 raise RuntimeError, "%s: Cycle found in configuration hierarchy." \
1589 % self.path()
1590 return self._ccObject
1591
1592 def descendants(self):
1593 yield self
1594 # The order of the dict is implementation dependent, so sort
1595 # it based on the key (name) to ensure the order is the same
1596 # on all hosts
1597 for (name, child) in sorted(self._children.iteritems()):
1598 for obj in child.descendants():
1599 yield obj
1600
1601 # Call C++ to create C++ object corresponding to this object
1602 def createCCObject(self):
1603 self.getCCParams()
1604 self.getCCObject() # force creation
1605
1606 def getValue(self):
1607 return self.getCCObject()
1608
1609 # Create C++ port connections corresponding to the connections in
1610 # _port_refs
1611 def connectPorts(self):
1612 # Sort the ports based on their attribute name to ensure the
1613 # order is the same on all hosts
1614 for (attr, portRef) in sorted(self._port_refs.iteritems()):
1615 portRef.ccConnect()
1616
1617# Function to provide to C++ so it can look up instances based on paths
1618def resolveSimObject(name):
1619 obj = instanceDict[name]
1620 return obj.getCCObject()
1621
1622def isSimObject(value):
1623 return isinstance(value, SimObject)
1624
1625def isSimObjectClass(value):
1626 return issubclass(value, SimObject)
1627
1628def isSimObjectVector(value):
1629 return isinstance(value, SimObjectVector)
1630
1631def isSimObjectSequence(value):
1632 if not isinstance(value, (list, tuple)) or len(value) == 0:
1633 return False
1634
1635 for val in value:
1636 if not isNullPointer(val) and not isSimObject(val):
1637 return False
1638
1639 return True
1640
1641def isSimObjectOrSequence(value):
1642 return isSimObject(value) or isSimObjectSequence(value)
1643
1644def isRoot(obj):
1645 from m5.objects import Root
1646 return obj and obj is Root.getInstance()
1647
1648def isSimObjectOrVector(value):
1649 return isSimObject(value) or isSimObjectVector(value)
1650
1651def tryAsSimObjectOrVector(value):
1652 if isSimObjectOrVector(value):
1653 return value
1654 if isSimObjectSequence(value):
1655 return SimObjectVector(value)
1656 return None
1657
1658def coerceSimObjectOrVector(value):
1659 value = tryAsSimObjectOrVector(value)
1660 if value is None:
1661 raise TypeError, "SimObject or SimObjectVector expected"
1662 return value
1663
1664baseClasses = allClasses.copy()
1665baseInstances = instanceDict.copy()
1666
1667def clear():
1668 global allClasses, instanceDict, noCxxHeader
1669
1670 allClasses = baseClasses.copy()
1671 instanceDict = baseInstances.copy()
1672 noCxxHeader = False
1673
1674# __all__ defines the list of symbols that get exported when
1675# 'from config import *' is invoked. Try to keep this reasonably
1676# short to avoid polluting other namespaces.
|
1520__all__ = [ 'SimObject' ]
| 1677__all__ = [
1678 'SimObject',
1679 'cxxMethod',
1680 'PyBindMethod',
1681 'PyBindProperty',
1682]
|
| |