def test_output_make_solution_cpp(self):
mf = Makefile('Makefile', 'solution', True)
mf.run_makefile()
correct = [
'g++ solution.cpp -g -Wall -std=gnu++11 -o solution',
'touch test.xyz'
]
self.assertEqual(mf.output, correct)
def test_output_make_all(self):
mf = Makefile('Makefile', '', True)
mf.run_makefile()
correct = [
'gcc -std=gnu99 -Wall -c -o hello.o hello.c',
'gcc -std=gnu99 -Wall -c -o main.o main.c',
'gcc -o hello main.o hello.o'
]
self.assertEqual(mf.output, correct)
def test_output_make_make(self):
# mf needs to set just_print to false in order to test mf2
mf = Makefile('Makefile', '', False)
mf.run_makefile()
mf2 = Makefile('Makefile', '', True)
mf2.run_makefile()
correct = []
self.assertEqual(mf2.output, correct)
def setUp(self):
self.module = "vector"
self.writerfake = WriterFake()
self.makefile = Makefile(self.writerfake)
self.cmd_tadd = CommandAdd(self.makefile,
self.writerfake,
template=True)
def test():
"""
Execute the tests
Returns: (n_total, n_success)
"""
logger = TestLogger(TESTNAME)
# generate makefile
mkf = Makefile()
mkf.add_fc_test_source("test.c")
mkf.add_cl_test_source("cluster.c")
mkf.add_cl_prog_source("func/dotp.c")
mkf.write()
for length in [22, 23, 1024, 1025]:
for a_stride, b_stride in [(1, 1), (4, 1), (8, 4)]:
# generate the stimuli
vec_a, vec_b, exp_result = gen_stimuli(length, a_stride, b_stride)
# prepare header file
header = HeaderFile("test_stimuli.h")
header.add(HeaderConstant("LENGTH", length))
header.add(HeaderConstant("EXP_RESULT", exp_result))
header.add(HeaderConstant("A_STRIDE", a_stride))
header.add(HeaderConstant("B_STRIDE", b_stride))
header.add(HeaderArray("vec_a", "int8_t", vec_a.ravel()))
header.add(HeaderArray("vec_b", "int8_t", vec_b.ravel()))
header.write()
# compile and run
os.system("make clean all run > {}".format(RESULT_FILE))
# parse output
result = parse_output(RESULT_FILE)
# log the result
subcase_name = "length: {}, stride: {}x{}".format(
length, a_stride, b_stride)
logger.show_subcase_result(subcase_name, result)
# return summary
return logger.summary()
def test():
"""
Execute the tests
Returns: (n_total, n_success)
"""
logger = TestLogger(TESTNAME)
# generate makefile
mkf = Makefile()
mkf.add_fc_test_source("test.c")
mkf.add_cl_test_source("cluster.c")
mkf.add_cl_prog_source("func/flip.c")
mkf.write()
for outer_len in [16, 17, 18, 19]:
for inner_len in [256, 257, 258, 259]:
# generate the stimuli
stim, exp = gen_stimuli(outer_len, inner_len)
# prepare header file
header = HeaderFile("test_stimuli.h")
header.add(HeaderConstant("OUTER_LEN", outer_len))
header.add(HeaderConstant("OUTER_LEN_ALIGN", align_array_size(outer_len)))
header.add(HeaderConstant("INNER_LEN", inner_len))
header.add(HeaderConstant("INNER_LEN_ALIGN", align_array_size(inner_len)))
header.add(HeaderArray("vec_x", "int8_t", stim))
header.add(HeaderArray("vec_exp", "int8_t", exp))
header.write()
# compile and run
os.system("make clean all run > {}".format(RESULT_FILE))
# parse output
result = parse_output(RESULT_FILE)
# log the result
subcase_name = "{}x{}".format(outer_len, inner_len)
logger.show_subcase_result(subcase_name, result)
# return summary
return logger.summary()
def build(self):
envD = dict()
parEntriesList = ['spmv', 'tpmv']
c_type = self.typeDict[self.op.dataType]
self.hls.params.setDtype(c_type)
envD["BLAS_dataType"] = c_type
self.typeStr = 'd%s' % c_type
if self.opClass == 'BLAS_L1':
r_type = self.typeDict[self.op.rtype]
self.typeStr = 'd%s_r%s' % (c_type, r_type)
envD["BLAS_resDataType"] = r_type
self.hls.params.setRtype(r_type)
if self.op.name in parEntriesList:
envD["BLAS_parEntries"] = "%d" % self.parEntries
with self.makelock:
make = Makefile(self.makefile, self.libPath)
libPath = make.make(envD, self.testPath)
self.lib = C.cdll.LoadLibrary(libPath)
def test():
"""
Execute the tests
Returns: (n_total, n_success)
"""
logger = TestLogger(TESTNAME)
# generate makefile
mkf = Makefile()
mkf.add_fc_test_source("test.c")
mkf.add_cl_test_source("cluster.c")
mkf.add_cl_prog_source("func/transform.c")
mkf.write()
for size in [1024, 1025, 1026, 1027]:
# generate the stimuli
x, y, y_bias = gen_stimuli(size, scale_factor=SCALE_FACTOR, bias=BIAS, max_val=2560)
# prepare header file
header = HeaderFile("test_stimuli.h")
header.add(HeaderConstant("LENGTH", size))
header.add(HeaderScalar("div_factor", "int32_t", SCALE_FACTOR))
header.add(HeaderScalar("bias", "int32_t", BIAS))
header.add(HeaderArray("vec_x", "int32_t", x))
header.add(HeaderArray("vec_exp", "int8_t", y))
header.add(HeaderArray("vec_exp_bias", "int8_t", y_bias))
header.write()
# compile and run
os.system("make clean all run > {}".format(RESULT_FILE))
# parse output
result = parse_output(RESULT_FILE)
# log the result
subcase_name = "n={}".format(size)
logger.show_subcase_result(subcase_name, result)
# return summary
return logger.summary()
def main():
args = read_arguments()
if args.file:
# if -f flag was used to specify the makefile
file_name = args.file
# quit if this is not a valid file path
if not os.path.exists(file_name) or not os.path.isfile(file_name):
error('The file {} could not be found.'.format(file_name))
else:
file_name = ''
# search the current directory for a makefile
for path in os.listdir(os.getcwd()):
if os.path.isfile(path):
if os.path.basename(path).lower() == 'makefile':
file_name = path
break
# quit if no makefile was found
if not file_name:
error('Makefile not found.')
mkfile = Makefile(file_name, args.target, args.just_print)
mkfile.run_makefile()
def test():
"""
Execute the tests
Returns: (n_total, n_success)
"""
logger = TestLogger(TESTNAME)
for intrinsic, simd, flip_layers, parallel, stream, xcorr, fuse, no_div, reorder, dup_inp in [
(False, False, False, False, False, False, False, False, False, False),
(True, False, False, False, False, False, False, False, False, False),
(True, True, False, False, False, False, False, False, False, False),
(True, True, True, False, False, False, False, False, False, False),
(True, True, True, True, False, False, False, False, False, False),
(True, True, True, True, True, False, False, False, False, False),
(True, True, True, True, True, True, False, False, False, False),
(True, True, True, True, True, True, True, False, False, False),
(True, True, True, True, True, True, True, True, False, False),
(True, True, True, True, True, True, True, True, True, False),
(True, True, True, True, True, True, True, True, True, True)
]:
# generate makefile
mkf = Makefile()
mkf.add_fc_test_source("test.c")
mkf.add_cl_test_source("cluster.c")
mkf.add_cl_prog_source("net/model.c")
mkf.add_cl_prog_source("net/layer1.c")
mkf.add_cl_prog_source("net/layer2.c")
mkf.add_cl_prog_source("net/layer3.c")
mkf.add_cl_prog_source("net/layer4.c")
mkf.add_cl_prog_source("net/layer5.c")
mkf.add_cl_prog_source("net/fused_layer_1_2.c")
mkf.add_cl_prog_source("net/net.c")
mkf.add_cl_prog_source("func/transform.c")
mkf.add_cl_prog_source("func/dotp.c")
mkf.add_cl_prog_source("func/conv.c")
mkf.add_cl_prog_source("func/flip.c")
mkf.add_cl_prog_source("func/xcorr.c")
if not simd:
mkf.add_define("NO_SIMD")
if flip_layers:
mkf.add_define("FLIP_LAYERS")
if parallel:
mkf.add_define("PARALLEL")
if intrinsic:
mkf.add_define("INTRINSIC_SCALE")
if stream:
mkf.add_define("DMA_STREAM")
if xcorr:
mkf.add_define("CROSS_CORRELATE")
if fuse:
mkf.add_define("FUSE_LAYERS")
if no_div:
mkf.add_define("NO_INTERMEDIATE_SCALE")
if dup_inp:
mkf.add_define("DUPLICATE_FEATUREMAP")
if reorder:
mkf.add_define("REORDER_BN")
mkf.write()
# generate the stimuli
_, x_align, _, y_exp_align = gen_stimuli(no_div=no_div, pad_data=dup_inp, reorder_bn=reorder)
# prepare header file
header = HeaderFile("test_stimuli.h")
header.add(HeaderArray("x_vec", "int8_t", x_align.ravel()))
header.add(HeaderArray("y_exp_vec", "int8_t", y_exp_align.ravel()))
header.write()
# compile and run
os.system("make clean all run > {}".format(RESULT_FILE))
# parse output
result = parse_output(RESULT_FILE)
# skip the naive result
if not flip_layers:
result["1"]["result"] = None
# prepare the case name
subcase_name = "naive"
if intrinsic:
subcase_name = "+ intrinsic scale"
if simd:
subcase_name = "+ SIMD"
if flip_layers:
subcase_name = "+ flip"
if parallel:
subcase_name = "+ parallel"
if stream:
subcase_name = "+ double buffering"
if xcorr:
subcase_name = "+ cross correlations"
if fuse:
subcase_name = "+ fused layer 1+2"
if no_div:
subcase_name = "+ no division after layer 1"
if reorder:
subcase_name = "+ reorder BN"
if dup_inp:
subcase_name = "+ duplicate featuremap"
# log the result
logger.show_subcase_result(subcase_name, result)
# return summary
return logger.summary()
def test_output_make_clean(self):
mf = Makefile('Makefile', 'clean', True)
mf.run_makefile()
correct = ['rm solution test.xyz']
self.assertEqual(mf.output, correct)
def test_output_make_clean_make(self):
mf = Makefile('Makefile', '', False)
mf.run_makefile()
mf2 = Makefile('Makefile', 'clean', False)
mf2.run_makefile()
mf3 = Makefile('Makefile', '', True)
mf3.run_makefile()
correct = [
'gcc -std=gnu99 -Wall -c -o hello.o hello.c',
'gcc -std=gnu99 -Wall -c -o main.o main.c',
'gcc -o hello main.o hello.o'
]
self.assertEqual(mf3.output, correct)
def setUp(self):
self.project_name = "matrix"
self.writerfake = WriterFake()
self.makefile = Makefile(self.writerfake)
self.cmd_init = CommandInit(self.makefile, self.writerfake)
def test_output_make_clean(self):
mf = Makefile('Makefile', 'clean', True)
mf.run_makefile()
correct = ['rm -f hello *.o']
self.assertEqual(mf.output, correct)
def test():
"""
Execute the tests
Returns: (n_total, n_success)
"""
logger = TestLogger(TESTNAME)
for intrinsic_conv_scale in [False, True]:
for simd in [False, True]:
for parallel in [False, True]:
for cross_correlate in [False, True]:
if not simd and (parallel or cross_correlate):
continue
# parallel requires intrinsic conv scale
if parallel and not intrinsic_conv_scale:
continue
# not implemented
if cross_correlate and not parallel:
continue
# generate makefile
mkf = Makefile()
mkf.add_fc_test_source("test.c")
mkf.add_cl_test_source("cluster.c")
mkf.add_cl_prog_source("net/layer1.c")
mkf.add_cl_prog_source("net/net.c")
mkf.add_cl_prog_source("func/conv.c")
mkf.add_cl_prog_source("func/xcorr.c")
mkf.add_cl_prog_source("func/transform.c")
if parallel:
mkf.add_define("PARALLEL")
if intrinsic_conv_scale:
mkf.add_define("INTRINSIC_SCALE")
if cross_correlate:
mkf.add_define("CROSS_CORRELATE")
if not simd:
mkf.add_define("NO_SIMD")
mkf.write()
random_input = False
# generate the stimuli
x, y_exp = gen_stimuli(random_input)
x_align = align_array(x)
y_exp_align = align_array(y_exp)
# prepare header file
header = HeaderFile("test_stimuli.h")
header.add(HeaderArray("x_vec", "int8_t", x_align.ravel()))
header.add(
HeaderArray("y_exp_vec", "int8_t",
y_exp_align.ravel()))
header.write()
# compile and run
os.system("make clean all run > {}".format(RESULT_FILE))
# parse output
result = parse_output(RESULT_FILE)
# log the result
options = []
if simd:
options.append("simd")
if parallel:
options.append("par")
if intrinsic_conv_scale:
options.append("intr.s.")
if cross_correlate:
options.append("xcorr")
subcase_name = "Layer 1 "
if options:
subcase_name += "; ".join(options)
else:
subcase_name += "naive"
logger.show_subcase_result(subcase_name, result)
# return summary
return logger.summary()
def test():
"""
Execute the tests
Returns: (n_total, n_success)
"""
logger = TestLogger(TESTNAME)
for size_a, size_b in [(155, 16), (1188, 64), (4096, 128)]:
for conv_version in [0, 1, 2, 3]:
div_factor = 128 * size_b // 8
offset = 10 * div_factor
# generate makefile
mkf = Makefile()
mkf.add_fc_test_source("test.c")
mkf.add_cl_test_source("cluster.c")
mkf.add_cl_prog_source("func/conv.c")
mkf.add_define("CONV_VERSION", conv_version)
mkf.write()
# generate the stimuli
vecA, vecB, vecExp = gen_stimuli(size_a, size_b, div_factor,
offset)
# prepare header file
header = HeaderFile("test_stimuli.h")
header.add(HeaderConstant("LENGTH_A", size_a))
header.add(HeaderConstant("LENGTH_B", size_b))
header.add(HeaderConstant("LENGTH_RES", len(vecExp)))
header.add(HeaderConstant("FACTOR", div_factor))
header.add(HeaderConstant("OFFSET", offset))
header.add(HeaderArray("vecA", "int8_t", vecA))
header.add(HeaderArray("vecB", "int8_t", vecB))
header.add(HeaderArray("vecExp", "int8_t", vecExp))
header.write()
# compile and run
os.system("make clean all run > {}".format(RESULT_FILE))
# parse output
result = parse_output(RESULT_FILE)
casename = "V{}, {}x{}".format(conv_version, size_a, size_b)
# log the result
logger.show_subcase_result(casename, result)
# return summary
return logger.summary()
def test():
"""
Execute the tests
Returns: (n_total, n_success)
"""
logger = TestLogger(TESTNAME)
for no_intermediate_scale, duplicate_featuremap in [(False, False),
(True, False),
(True, True)]:
# generate makefile
# mkf = Makefile(opt_level=2 if duplicate_featuremap else 3)
mkf = Makefile(opt_level=3)
mkf.add_fc_test_source("test.c")
mkf.add_cl_test_source("cluster.c")
mkf.add_cl_prog_source("net/fused_layer_1_2.c")
mkf.add_cl_prog_source("net/net.c")
mkf.add_cl_prog_source("func/conv.c")
mkf.add_cl_prog_source("func/xcorr.c")
mkf.add_cl_prog_source("func/dotp.c")
mkf.add_cl_prog_source("func/transform.c")
mkf.add_define("PARALLEL")
mkf.add_define("INTRINSIC_SCALE")
mkf.add_define("CROSS_CORRELATE")
mkf.add_define("FUSE_LAYERS")
mkf.add_define("DEFAULT_DIM")
if no_intermediate_scale:
mkf.add_define("NO_INTERMEDIATE_SCALE")
if duplicate_featuremap:
mkf.add_define("DUPLICATE_FEATUREMAP")
mkf.write()
random_input = False
# generate the stimuli
_, x_align, _, y_exp_align = gen_stimuli(random_input,
no_intermediate_scale,
duplicate_featuremap)
# prepare header file
header = HeaderFile("test_stimuli.h")
header.add(HeaderArray("x_vec", "int8_t", x_align.ravel()))
header.add(HeaderArray("y_exp_vec", "int8_t", y_exp_align.ravel()))
header.write()
# compile and run
os.system("make clean all run > {}".format(RESULT_FILE))
# parse output
result = parse_output(RESULT_FILE)
# log the result
options = []
if no_intermediate_scale:
options.append("no scale")
if duplicate_featuremap:
options.append("dup inp")
subcase_name = "Fused Layer 1+2 "
if options:
subcase_name += "; ".join(options)
logger.show_subcase_result(subcase_name, result)
# return summary
return logger.summary()
def test():
"""
Execute the tests
Returns: (n_total, n_success)
"""
logger = TestLogger(TESTNAME, show_title=False)
for simd in [False, True]:
# generate makefile
mkf = Makefile()
mkf.add_fc_test_source("test.c")
mkf.add_cl_test_source("cluster.c")
mkf.add_cl_prog_source("net/layer5.c")
mkf.add_cl_prog_source("net/net.c")
mkf.add_cl_prog_source("func/transform.c")
mkf.add_cl_prog_source("func/dotp.c")
mkf.write()
if not simd:
mkf.add_define("NO_SIMD")
random_input = False
# generate the stimuli
_, x_align, _, y_exp_align = gen_stimuli(random_input)
# prepare header file
header = HeaderFile("test_stimuli.h")
header.add(HeaderArray("x_vec", "int8_t", x_align.ravel()))
header.add(HeaderArray("y_exp_vec", "int8_t", y_exp_align.ravel()))
header.write()
# compile and run
os.system("make clean all run > {}".format(RESULT_FILE))
# parse output
result = parse_output(RESULT_FILE)
# log the result
subcase_name = "Layer 5 "
if simd:
subcase_name += "simd"
else:
subcase_name += "naive"
logger.show_subcase_result(subcase_name, result)
# return summary
return logger.summary()
def test():
"""
Execute the tests
Returns: (n_total, n_success)
"""
logger = TestLogger(TESTNAME, show_title=False)
for simd in [False, True]:
for flip_layers in [False, True]:
for parallel in [False, True]:
for dma_stream in [False, True]:
for reorder in [False, True]:
if not simd and (flip_layers or parallel or dma_stream or reorder):
continue
if not flip_layers and (parallel or dma_stream):
# not implemented
continue
if not parallel and dma_stream:
# not implemented
continue
# generate makefile
mkf = Makefile()
mkf.add_fc_test_source("test.c")
mkf.add_cl_test_source("cluster.c")
mkf.add_cl_prog_source("net/layer2.c")
mkf.add_cl_prog_source("net/net.c")
mkf.add_cl_prog_source("func/transform.c")
mkf.add_cl_prog_source("func/dotp.c")
if not simd:
mkf.add_define("NO_SIMD")
if flip_layers:
mkf.add_define("FLIP_LAYERS")
if parallel:
mkf.add_define("PARALLEL")
if dma_stream:
mkf.add_define("DMA_STREAM")
if reorder:
mkf.add_define("REORDER_BN")
mkf.write()
random_input = False
# generate the stimuli
_, x_align, _, y_exp_align = gen_stimuli(random_input, flip_layers, reorder)
# prepare header file
header = HeaderFile("test_stimuli.h")
header.add(HeaderArray("x_vec", "int8_t", x_align.ravel()))
header.add(HeaderArray("y_exp_vec", "int8_t", y_exp_align.ravel()))
header.write()
# compile and run
os.system("make clean all run > {}".format(RESULT_FILE))
# parse output
result = parse_output(RESULT_FILE)
# log the result
subcase_name = "Layer 2 "
options = []
if simd:
options.append("simd")
if flip_layers:
options.append("flip")
if parallel:
options.append("par")
if dma_stream:
options.append("stream")
if reorder:
options.append("reorder")
if options:
subcase_name += "; ".join(options)
else:
subcase_name += "naive"
logger.show_subcase_result(subcase_name, result)
# return summary
return logger.summary()
def test_cycle(self):
mf = Makefile('Makefile', 'cycle', True)
# sys.exit should be called
with self.assertRaises(SystemExit):
mf.run_makefile()
def test():
"""
Execute the tests
Returns: (n_total, n_success)
"""
logger = TestLogger(TESTNAME, show_title=False)
for simd, parallel in [(False, False), (True, False), (True, True)]:
# generate makefile
mkf = Makefile()
mkf.add_fc_test_source("test.c")
mkf.add_cl_test_source("cluster.c")
mkf.add_cl_prog_source("net/layer3.c")
mkf.add_cl_prog_source("net/net.c")
mkf.add_cl_prog_source("func/transform.c")
mkf.add_cl_prog_source("func/conv.c")
if not simd:
mkf.add_define("NO_SIMD")
if parallel:
mkf.add_define("PARALLEL")
mkf.write()
random_input = False
# generate the stimuli
_, x_align, _, y_exp_align = gen_stimuli(random_input)
# prepare header file
header = HeaderFile("test_stimuli.h")
header.add(HeaderArray("x_vec", "int8_t", x_align.ravel()))
header.add(HeaderArray("y_exp_vec", "int8_t", y_exp_align.ravel()))
header.write()
# compile and run
os.system("make clean all run > {}".format(RESULT_FILE))
# parse output
result = parse_output(RESULT_FILE)
# log the result
options = []
if simd:
options.append("simd")
if parallel:
options.append("parallel")
subcase_name = "layer 3 "
if options:
subcase_name += " + ".join(options)
else:
subcase_name += "naive"
logger.show_subcase_result(subcase_name, result)
# return summary
return logger.summary()
from makefile import Makefile
from writer import Writer
from .add import CommandAdd
from .command_interface import CommandInterface
from .command_update import CommandUpdate
from .delete import CommandDelete
from .install import CommandInstall
from .init import CommandInit
from .remove import CommandRemove
from .run import CommandRun
from .build import CommandBuild
from .version import CommandVersion
writer = Writer()
makefile_processor = Makefile(writer)
commands = {
'add': CommandAdd(makefile_processor, writer),
'init': CommandInit(makefile_processor, writer),
'tadd': CommandAdd(makefile_processor, writer, template=True),
'delete': CommandDelete(makefile_processor, writer),
'run': CommandRun(makefile_processor, writer),
'build': CommandBuild(makefile_processor, writer),
'version': CommandVersion()
}
def initialize_command(command: str) -> CommandInterface:
"""
This method creates a new command
def setUp(self):
self.package = "matrix"
self.action = "vector"
self.writerfake = WriterFake()
self.makefile = Makefile(self.writerfake)
class TestMakefile(TestCase):
def setUp(self):
self.package = "matrix"
self.action = "vector"
self.writerfake = WriterFake()
self.makefile = Makefile(self.writerfake)
def test_generate(self):
expected_lines = [
"CC=g++",
"CFLAGS=-g -std=c++17 -Wall -Wextra -Iinclude -Iutils",
"\n",
"all: src\\main.cc",
"\t$(CC) $(CFLAGS) -o {package} src\\main.cc".format(package=self.package),
"\n"
]
self.makefile.generate(self.package)
final_lines = self.writerfake.get_lines()
self.assertEqual(expected_lines, final_lines)
def test_add_variable(self):
expected_lines = ["CC=g++"]
self.makefile.add_variable('Makefile', 'CC', 'g++')
final_lines = self.writerfake.get_lines()
self.assertEqual(expected_lines, final_lines)
def test_add_action(self):
expected_lines = [
"all: src\\main.cc build\\{action}.o".format(action=self.action),
"\t$(CC) $(CFLAGS) -o {package} src\\main.cc build\\{action}.o".format(package=self.package, action=self.action),
"\n",
"build\\{action}.o: include\\{action}.h src\\{action}.cc".format(action=self.action),
"\t$(CC) $(CFLAGS) -c -o build\\{action}.o src\\{action}.cc".format(action=self.action)
]
self.makefile.add_base_all_action('Makefile', self.package)
self.makefile.add_action(self.action)
written_lines = self.writerfake.get_lines()
self.assertEqual(expected_lines, written_lines)
def test_delete_action(self):
initial_lines = [
"all: src\\main.cc build\\{action}.o".format(action=self.action),
"\t$(CC) $(CFLAGS) -o {package} src\\main.cc build\\{action}.o".format(package=self.package, action=self.action),
"\n",
"build\\{action}.o: include\\{action}.h src\\{action}.cc".format(action=self.action),
"\t$(CC) $(CFLAGS) -c -o build\\{action}.o src\\{action}.cc".format(action=self.action)
]
expected_lines = [
"all: src\\main.cc",
"\t$(CC) $(CFLAGS) -o {package} src\\main.cc".format(package=self.package),
"\n"
]
self.writerfake.set_lines(initial_lines)
self.makefile.delete_action(self.action)
final_lines = self.writerfake.get_lines()
self.assertEqual(expected_lines, final_lines)
def test_update_all_with_util(self):
new_util = "utils/{action}\\{action}.o".format(action=self.action)
initial_lines = [
"all: src\\main.cc",
"\t$(CC) $(CFLAGS) -o {package} src\\main.cc".format(package=self.package),
"\n"
]
expected_lines = [
"all: src\\main.cc {util}".format(util=new_util),
"\t$(CC) $(CFLAGS) -o matrix src\\main.cc {util}".format(util=new_util),
"\n"
]
self.writerfake.set_lines(initial_lines)
self.makefile.update_all_with_util('Makefile', self.action)
self.assertEqual(expected_lines, self.writerfake.get_lines())
def test_update_all_with_module(self):
lines = [
"all: src\\main.cc",
"\t$(CC) $(CFLAGS) -o matrix src\\main.cc",
"\n"
]
self.writerfake.set_lines(lines)
lines[0] += " build\\matrix.o"
lines[1] += " build\\matrix.o"
self.makefile.update_all_with_module('Makefile', 'matrix')
self.assertEqual(self.writerfake.get_lines(), lines)
def test_add_base_all_action_with_separator(self):
expected_lines = [
"all: src\\main.cc",
"\t$(CC) $(CFLAGS) -o matrix src\\main.cc",
"\n"
]
self.makefile.add_base_all_action('Makefile', 'matrix')
self.assertEqual(self.writerfake.get_lines(), expected_lines)
def test_add_base_all_action_without_separator(self):
expected_lines = [
"all: src\\main.cc",
"\t$(CC) $(CFLAGS) -o matrix src\\main.cc"
]
self.makefile.add_base_all_action('Makefile', 'matrix', separator=False)
self.assertEqual(expected_lines, self.writerfake.get_lines())
def tearDown(self):
# removes files left after a method e.x. test_output_make_make
mf = Makefile('Makefile', 'clean', False)
mf.run_makefile()
def test():
"""
Execute the tests
Returns: (n_total, n_success)
"""
logger = TestLogger(TESTNAME, show_title=False)
# generate makefile
mkf = Makefile()
mkf.add_fc_test_source("test.c")
mkf.add_cl_test_source("cluster.c")
mkf.add_cl_prog_source("net/layer3.c")
mkf.add_cl_prog_source("net/net.c")
mkf.add_cl_prog_source("func/flip.c")
mkf.write()
# generate the stimuli
_, x_align, _, y_exp_align = gen_stimuli()
# prepare header file
header = HeaderFile("test_stimuli.h")
header.add(HeaderArray("x_vec", "int8_t", x_align.ravel(), const=False))
header.add(HeaderArray("y_exp", "int8_t", y_exp_align.ravel(),
const=False))
header.write()
# compile and run
os.system("make clean all run > {}".format(RESULT_FILE))
# parse output
result = parse_output(RESULT_FILE)
# log the result
subcase_name = "Layer 3 flip"
logger.show_subcase_result(subcase_name, result)
# return summary
return logger.summary()