Files
cea-sec-miasm/test/test_all.py
T
2014-08-06 17:28:13 +02:00

453 lines
13 KiB
Python

import subprocess
import sys
import os
import time
import argparse
import tempfile
# Test derivations
def all_jit(assembly_line):
"""Add all available jitter options to assembly_line thanks to '--jitter'
option.
@assembly_line: list(str)
Return a list of assembly lines: list(list(str)).
"""
out = []
for jitter in ["tcc", "llvm", "python"]:
out.append(assembly_line + ["--jitter", jitter])
return out
# Available tests
all_tests = {
"test": {
"architecture": [
["arch/x86/arch.py"],
["arch/x86/sem.py"],
["arch/arm/arch.py"],
["arch/arm/sem.py"],
["arch/msp430/arch.py"],
["arch/msp430/sem.py"],
["arch/sh4/arch.py"],
["arch/mips32/arch.py"],
],
"core": [
["core/interval.py"],
["core/graph.py"],
["core/parse_asm.py"],
],
"expression": [
["expression/modint.py"],
["expression/stp.py"],
["expression/simplifications.py"],
],
"ir": [
["ir/ir2C.py"],
["ir/symbexec.py"],
],
"jitter": [
["jitter/os_dep/win_api_x86_32.py"],
],
"order": [
"architecture",
"core",
"expression",
"ir",
"jitter",
],
},
"example": {
"assembler": [
["asm_x86.py"],
["asm_arm.py"],
["asm_box_x86_32.py"],
["asm_box_x86_32_enc.py"],
["asm_box_x86_32_mod.py"],
["asm_box_x86_32_mod_self.py"],
["asm_box_x86_32_repmod.py"],
["disasm_01.py"],
["disasm_02.py"],
["disasm_03.py", "box_upx.exe", "0x410f90"],
],
"expression": [
["symbol_exec.py"],
["expression/manip_expression1.py"],
["expression/manip_expression2.py"],
["expression/manip_expression3.py"],
["expression/manip_expression4.py",
"expression/sc_connect_back.bin", "0x2e"],
["expression/manip_expression5.py"],
["expression/manip_expression6.py"],
["expression/manip_expression7.py"],
["test_dis.py", "-g", "-s", "-m", "arm", "demo_arm.bin", "0"],
["test_dis.py", "-g", "-s", "-m",
"x86_32", "box_x86_32.bin", "0x401000"],
["expression/solve_condition_stp.py",
"expression/simple_test.bin"],
],
"jitter": reduce(lambda x, y: x + y,
map(all_jit, [
["unpack_upx.py", "box_upx.exe"], # Take 5 mins on a Core i5
["test_jit_x86_32.py", "x86_32_sc.bin"],
["test_jit_arm.py", "md5_arm", "A684"],
["sandbox_pe_x86_32.py", "box_x86_32.bin"],
["sandbox_pe_x86_32.py", "box_x86_32_enc.bin"],
["sandbox_pe_x86_32.py", "box_x86_32_mod.bin"],
["sandbox_pe_x86_32.py", "box_x86_32_repmod.bin"],
["sandbox_pe_x86_32.py", "box_x86_32_mod_self.bin"],
])),
"order": [
"assembler",
"expression",
"jitter",
],
},
"order": [
"test",
"example",
],
}
# Cosmetic
def getTerminalSize():
"Return the size of the terminal : COLUMNS, LINES"
env = os.environ
def ioctl_GWINSZ(fd):
try:
import fcntl
import termios
import struct
import os
cr = struct.unpack('hh', fcntl.ioctl(fd, termios.TIOCGWINSZ,
'1234'))
except:
return
return cr
cr = ioctl_GWINSZ(0) or ioctl_GWINSZ(1) or ioctl_GWINSZ(2)
if not cr:
try:
fd = os.open(os.ctermid(), os.O_RDONLY)
cr = ioctl_GWINSZ(fd)
os.close(fd)
except:
pass
if not cr:
cr = (env.get('LINES', 25), env.get('COLUMNS', 80))
return int(cr[1]), int(cr[0])
WIDTH = getTerminalSize()[0]
colors = {"red": "\033[91;1m",
"end": "\033[0m",
"green": "\033[92;1m",
"lightcyan": "\033[96m",
"blue": "\033[94;1m"}
def write_colored(text, color, already_printed=0):
text_colored = colors[color] + text + colors["end"]
print " " * (WIDTH - already_printed - len(text)) + text_colored
def write_underline(text):
print "\033[4m" + text + colors["end"]
def print_conf(conf, value):
return colors["green"] + conf + ": " + colors["end"] + str(value)
def clr_screen(global_state, pstate):
"Update the screen to display some information"
# Header
to_print = []
to_print.append(" " * (global_state["termSize"][0] / 2 - 10) + colors[
"blue"] + "Miasm2 Regression tests" + colors["end"])
to_print.append("")
to_print.append("=" * global_state["termSize"][0])
to_print.append("")
to_print.append(print_conf("Current mode", "Multiprocessing"))
to_print.append(print_conf("Nb CPU detected", global_state["cpu_c"]))
to_print.append("")
to_print.append("=" * global_state["termSize"][0])
to_print.append("")
to_print.append(
print_conf("Current section", global_state["section"].upper()))
to_print.append(
print_conf("Current subsection", global_state["subsection"].upper()))
test_done = 0
test_failed = 0
message = global_state["message"] + "\n"
for k, v in pstate.items():
if v["status"] != "running":
test_done += 1
if v["status"] != 0:
test_failed += 1
message += colors["red"] + "FAIL: " + colors["end"] + k
message += v["message"] + "\n"
to_print.append(print_conf("Success rate", "%d/%d" %
(test_done - test_failed, test_done)))
printed_time = time.strftime(
"%M:%S", time.gmtime(time.time() - global_state["init_time"]))
to_print.append(print_conf("Cumulated time", printed_time))
to_print.append("")
to_print.append("=" * global_state["termSize"][0])
cur = "\n".join(to_print)
cur += "\n"
# Message
cur += message
print cur
already_printed = cur.count("\n")
# Current state
current_job = []
for t in pstate.values():
if t["status"] == "running":
current_job.append(t)
print "\n" * (global_state["termSize"][1] - already_printed - 3 - len(current_job))
for j in current_job:
s = "[" + colors["lightcyan"] + j["command"] + colors["end"]
s_end = time.strftime(
"%M:%Ss", time.gmtime(time.time() - j["init_time"]))
l = len(j["command"]) + len(s_end) + 4 + len(str(j["pid"])) + 2
s_end += " " + colors["blue"] + str(j["pid"]) + colors["end"] + "]"
print "%s%s%s" % (s, " " * (global_state["termSize"][0] - l), s_end)
# Tests handling
def are_tests_finished(test_names, done):
for t in test_names:
if t not in done:
return False
return True
def are_tests_finished_multi(test_names, pstate):
for t in test_names:
t = " ".join(t)
if t not in pstate.keys():
return False
if pstate[t]["status"] == "running":
return False
return True
def test_iter(done):
"Return an iterator on next tests, wait for previous sections"
for section_name in all_tests["order"]:
# Go to the right directory
os.chdir(os.path.join("..", section_name))
# Update global state
section_content = all_tests[section_name]
write_underline(section_name.upper())
for subsection_name in section_content["order"]:
subsection_content = section_content[subsection_name]
write_underline("%s > %s" % (section_name.upper(),
subsection_name.upper()))
for test_line in subsection_content:
yield test_line
while not(are_tests_finished(subsection_content, done)):
time.sleep(0.050)
def test_iter_multi(global_state, pstate):
"Multiprocessor version of test_iter"
# Global message : subsections done
message = ""
for section_name in all_tests["order"]:
# Update global state
section_content = all_tests[section_name]
global_state["section"] = section_name
for subsection_name in section_content["order"]:
subsection_content = section_content[subsection_name]
beg_time = time.time()
global_state["subsection"] = subsection_name
for test_line in subsection_content:
yield test_line
while not(are_tests_finished_multi(subsection_content, pstate)):
# Wait for task to finish, update the screen
time.sleep(0.100)
clr_screen(global_state, pstate)
message += "%s > %s completed in %.08f seconds\n" % (section_name.upper(),
subsection_name.upper(
),
time.time() - beg_time)
global_state["message"] = message
# Final update
clr_screen(global_state, pstate)
def run_test(test, coveragerc=None):
s = "Running tests on %s ..." % " ".join(test)
sys.stdout.write(s)
sys.stdout.flush()
args = test
if coveragerc is not None:
args = ["-m", "coverage", "run", "--rcfile", coveragerc, "-a"] + test
# Launch test
testpy = subprocess.Popen(["python"] + args, stdout=subprocess.PIPE,
stderr=subprocess.PIPE)
outputs = testpy.communicate()
# Check result
if testpy.returncode == 0:
write_colored("OK", "green", len(s))
else:
write_colored("ERROR", "red", len(s))
print outputs[1]
def run_test_parallel(test, current, global_state):
pid = os.getpid()
test_key = " ".join(test)
# Keep current PID
current[test_key] = {"status": "running",
"pid": pid,
"command": test_key,
"init_time": time.time()}
# Go to the right directory
os.chdir(os.path.join("..", global_state["section"]))
# Launch test
testpy = subprocess.Popen(["python"] + test, stdout=subprocess.PIPE,
stderr=subprocess.PIPE)
outputs = testpy.communicate()
# Check result
message = ""
if testpy.returncode != 0:
message = outputs[1]
# Update result
current[test_key] = {"status": testpy.returncode,
"message": message}
# Multiprocessing handling
try:
from multiprocessing import Manager, Pool, cpu_count
multiproc = True
except ImportError:
multiproc = False
# Argument parsing
parser = argparse.ArgumentParser(description="Miasm2 testing tool")
parser.add_argument("-m", "--mono", help="Force monothreading",
action="store_true")
parser.add_argument("-c", "--coverage", help="Include code coverage",
action="store_true")
args = parser.parse_args()
if args.mono is True or args.coverage is True:
multiproc = False
# Handle coverage
coveragerc = None
if args.coverage is True:
try:
import coverage
except ImportError:
print "%(red)s[Coverage]%(end)s Python 'coverage' module is required" % colors
exit(-1)
# Create directory
suffix = "_" + str(int(time.time()))
cov_dir = tempfile.mkdtemp(suffix, "m2_coverage_")
# Create configuration file
coveragerc = os.path.join(cov_dir, ".coveragerc")
coverage = os.path.join(cov_dir, ".coverage")
from ConfigParser import ConfigParser
from os.path import expanduser
config = ConfigParser()
config.read(['/etc/coveragerc', expanduser('~/.coveragerc')])
if not config.has_section('run'):
config.add_section('run')
config.set('run', 'data_file', coverage)
config.write(open(coveragerc, 'w'))
# Inform the user
d = {"blue": colors['blue'],
"end": colors['end'],
"cov_dir": cov_dir}
print "[%(blue)sCoverage%(end)s] Report will be written in %(cov_dir)s" % d
# Handle llvm modularity
llvm = True
try:
import llvm
except ImportError:
llvm = False
# if llvm.version != (3,2):
# llvm = False
if llvm is False:
print "%(red)s[LLVM]%(end)s Python 'py-llvm 3.2' module is required for llvm tests" % colors
# Remove llvm tests
for test in all_tests["example"]["jitter"]:
if "llvm" in test:
all_tests["example"]["jitter"].remove(test)
print "%(red)s[LLVM]%(end)s Remove" % colors, " ".join(test)
# Let the user see messages
time.sleep(0.5)
# Run tests
if multiproc is False:
done = list()
for test in test_iter(done):
run_test(test, coveragerc=coveragerc)
done.append(test)
else:
# Parallel version
cpu_c = cpu_count()
global_state = {"cpu_c": cpu_c,
"init_time": time.time(),
"termSize": getTerminalSize(),
"message": ""}
manager = Manager()
pool = Pool(processes=cpu_c)
current = manager.dict()
for test in test_iter_multi(global_state, current):
pool.apply_async(run_test_parallel, (test,
current,
global_state))
pool.close()
pool.join()