blob: caced9a2481e82d2bb63570ffb79ae1693c6b00b [file] [log] [blame]
#!/usr/bin/python3
#
# Copyright (C) 2018 The Android Open Source Project
#
# Licensed under the Apache License, Version 2.0 (the "License");
# you may not use this file except in compliance with the License.
# You may obtain a copy of the License at
#
# http://www.apache.org/licenses/LICENSE-2.0
#
# Unless required by applicable law or agreed to in writing, software
# distributed under the License is distributed on an "AS IS" BASIS,
# WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
# See the License for the specific language governing permissions and
# limitations under the License.
#
"""Generate intrinsics code."""
from collections import OrderedDict
import asm_defs
import gen_device_insn_info_lib
import json
import os
import re
import sys
# C-level intrinsic calling convention:
# 1. All arguments are passed using the natural data types:
# - int8_t passed as one byte argument (on the stack in IA32 mode, in GP register in x86-64 mode)
# - int32_t passed as 4 bytes argument (on the stack in IA32 mode, in GP register in x86-64 mode)
# - int64_t is passed as 8 byte argument (on the stack in IA32 mode, in GP register in x86-64 mode)
# - float is passed as float (on the stack in IA32 mode, in XMM register in x86-64 mode)
# - double is passed as double (on the stack in IA32 mode, in XMM register in x86-64 mode)
# - vector formats are passed as pointers to 128bit data structure
# 2. Return values.
# - Values are returned as std::tuple. This means that on IA32 it's always returned on stack.
INDENT = ' '
AUTOGEN = """\
// This file automatically generated by gen_intrinsics.py
// DO NOT EDIT!
"""
class VecFormat(object):
def __init__(self, num_elements, element_size, is_unsigned, is_float, index,
c_type):
self.num_elements = num_elements
self.element_size = element_size
self.is_unsigned = is_unsigned
self.is_float = is_float
self.index = index
self.c_type = c_type
# Vector format defined as:
# vector_size, element_size, is_unsigned, is_float, index, ir_format, c_type
# TODO(olonho): make flat numbering after removing legacy macro compat.
_VECTOR_FORMATS = {
'U8x8': VecFormat(8, 1, True, False, 1, 'uint8_t'),
'U16x4': VecFormat(4, 2, True, False, 2, 'uint16_t'),
'U32x2': VecFormat(2, 4, True, False, 3, 'uint32_t'),
'U64x1': VecFormat(1, 8, True, False, 4, 'uint64_t'),
'U8x16': VecFormat(16, 1, True, False, 5, 'uint8_t'),
'U16x8': VecFormat(8, 2, True, False, 6, 'uint16_t'),
'U32x4': VecFormat(4, 4, True, False, 7, 'uint32_t'),
'U64x2': VecFormat(2, 8, True, False, 8, 'uint64_t'),
'I8x8': VecFormat(8, 1, False, False, 9, 'int8_t'),
'I16x4': VecFormat(4, 2, False, False, 10, 'int16_t'),
'I32x2': VecFormat(2, 4, False, False, 11, 'int32_t'),
'I64x1': VecFormat(1, 8, False, False, 12, 'int64_t'),
'I8x16': VecFormat(16, 1, False, False, 13, 'int8_t'),
'I16x8': VecFormat(8, 2, False, False, 14, 'int16_t'),
'I32x4': VecFormat(4, 4, False, False, 15, 'int32_t'),
'I64x2': VecFormat(2, 8, False, False, 16, 'int64_t'),
'U8x1': VecFormat(1, 1, True, False, 17, 'uint8_t'),
'I8x1': VecFormat(1, 1, False, False, 18, 'int8_t'),
'U16x1': VecFormat(1, 2, True, False, 19, 'uint16_t'),
'I16x1': VecFormat(1, 2, False, False, 20, 'int16_t'),
'U32x1': VecFormat(1, 4, True, False, 21, 'uint32_t'),
'I32x1': VecFormat(1, 4, False, False, 22, 'int32_t'),
# These vector formats can never intersect with above, so can reuse index.
'F32x1': VecFormat(1, 4, False, True, 1, 'Float32'),
'F32x2': VecFormat(2, 4, False, True, 2, 'Float32'),
'F32x4': VecFormat(4, 4, False, True, 3, 'Float32'),
'F64x1': VecFormat(1, 8, False, True, 4, 'Float64'),
'F64x2': VecFormat(2, 8, False, True, 5, 'Float64'),
# Those vector formats can never intersect with above, so can reuse index.
'U8x4': VecFormat(4, 1, True, False, 1, 'uint8_t'),
'U16x2': VecFormat(2, 2, True, False, 2, 'uint16_t'),
'I8x4': VecFormat(4, 1, False, False, 3, 'int8_t'),
'I16x2': VecFormat(2, 2, False, False, 4, 'int16_t'),
}
class VecSize(object):
def __init__(self, num_elements, index):
self.num_elements = num_elements
self.index = index
_VECTOR_SIZES = {'X64': VecSize(64, 1), 'X128': VecSize(128, 2)}
_ROUNDING_MODES = ['FE_TONEAREST', 'FE_DOWNWARD', 'FE_UPWARD', 'FE_TOWARDZERO', 'FE_TIESAWAY']
def _is_imm_type(arg_type):
return 'imm' in arg_type
def _is_template_type(arg_type):
if not arg_type.startswith('Type'):
return False
assert isinstance(int(arg_type[4:]), int)
return True
def _get_imm_c_type(arg_type):
return {
'imm8' : 'int8_t',
'uimm8' : 'uint8_t',
'uimm16' : 'uint16_t',
'uimm32' : 'uint32_t',
}[arg_type]
def _get_c_type(arg_type):
if (arg_type in ('Float16', 'Float32', 'Float64', 'int8_t', 'uint8_t', 'int16_t',
'uint16_t', 'int32_t', 'uint32_t', 'int64_t', 'uint64_t',
'volatile uint8_t*', 'volatile uint32_t*') or
_is_template_type(arg_type)):
return arg_type
if arg_type in ('fp_flags', 'fp_control', 'int', 'flag', 'flags', 'vec32'):
return 'uint32_t'
if _is_imm_type(arg_type):
return _get_imm_c_type(arg_type)
if arg_type == 'vec':
return 'SIMD128Register'
if arg_type in _ROUNDING_MODES:
return 'int'
raise Exception('Type %s not supported' % (arg_type))
def _get_semantic_player_type(arg_type, type_map, listener=''):
if type_map is not None and type_map != False and arg_type in type_map:
type = type_map[arg_type]
if type in ('FpRegister', 'Register', 'SimdRegister'):
return listener + type
return type
if arg_type in ('Float16', 'Float32', 'Float64', 'vec'):
return listener + 'SimdRegister'
if _is_imm_type(arg_type):
return _get_imm_c_type(arg_type)
return listener + 'Register'
def _gen_scalar_intr_decl(f, name, intr):
ins = intr.get('in')
outs = intr.get('out')
params = [_get_c_type(op) for op in ins]
if len(outs) > 0:
retval = 'std::tuple<' + ', '.join(_get_c_type(out) for out in outs) + '>'
else:
retval = 'void'
comment = intr.get('comment')
if comment:
print('// %s.' % (comment), file=f)
if intr.get('precise_nans', False):
print('template <bool precise_nan_operations_handling, '
'enum PreferredIntrinsicsImplementation = kUseAssemblerImplementationIfPossible>',
file=f)
print('%s %s(%s);' % (retval, name, ', '.join(params)), file=f)
def _gen_template_intr_decl(f, name, intr):
ins = intr.get('in')
outs = intr.get('out')
params = [_get_c_type(op) for op in ins]
if len(outs) > 0:
retval = 'std::tuple<' + ', '.join(_get_c_type(out) for out in outs) + '>'
else:
retval = 'void'
comment = intr.get('comment')
if comment:
print('// %s.' % (comment), file=f)
print('template <%s>' % _get_template_parameters(
intr.get('variants'), intr.get('precise_nans', False)), file=f)
print('%s %s(%s);' % (retval, name, ', '.join(params)), file=f)
def _get_template_parameters(
variants,
precise_nans=False,
extra=['enum PreferredIntrinsicsImplementation = kUseAssemblerImplementationIfPossible']):
if len(extra) == 0:
typename = 'intrinsics::TemplateTypeId'
else:
typename = 'typename'
template = None
for variant in variants:
counter = -1
def get_counter():
nonlocal counter
counter += 1
return counter
new_template = ', '.join(
(["bool kPreciseNaNOperationsHandling"] if precise_nans else []) +
['bool kBool%s' % get_counter() if param.strip() in ('true', 'false') else
'int kInt%s' % get_counter() if param.strip() in _ROUNDING_MODES else
'%s Type%d' % (typename, get_counter()) if re.search('[_a-zA-Z]', param) else
'int kInt%s' % get_counter()
for param in variant.split(',')] + extra)
assert template is None or template == new_template
template = new_template
return template
def _gen_vector_intr_decl(f, name, intr):
ins = intr.get('in')
outs = intr.get('out')
params = [_get_c_type(op) for op in ins]
if len(outs) > 0:
retval = 'std::tuple<' + ', '.join(_get_c_type(out) for out in outs) + '>'
else:
retval = 'void'
comment = intr.get('comment')
if comment:
print('// %s.' % (comment), file=f)
if intr.get('precise_nans', False):
template_parameters = 'bool precise_nan_operations_handling, '
else:
template_parameters = ''
if not 'raw' in intr['variants']:
template_parameters += 'typename Type, '
template_parameters += 'int size, '
template_parameters += 'enum PreferredIntrinsicsImplementation'
template_parameters += ' = kUseAssemblerImplementationIfPossible'
print('template <%s>' % template_parameters, file=f)
print('%s %s(%s);' % (retval, name, ', '.join(params)), file=f)
def _is_vector_class(intr):
return intr.get('class') in ('vector_4', 'vector_8', 'vector_16',
'vector_8/16', 'vector_8/16/single',
'vector_8/single', 'vector_16/single')
def _is_simd128_conversion_required(t, type_map=None):
return (_get_semantic_player_type(t, type_map) == 'SimdRegister' and
_get_c_type(t) != 'SIMD128Register')
def _get_semantics_player_hook_result(intr, listener=''):
outs = intr['out']
if len(outs) == 0:
return 'void'
elif len(outs) == 1:
# No tuple for single result.
return _get_semantic_player_type(outs[0], intr.get('sem-player-types'), listener)
return 'std::tuple<' + ', '.join(
_get_semantic_player_type(out, intr.get('sem-player-types'), listener)
for out in outs) + '>'
def _get_semantics_player_hook_proto_components(name, intr, listener=''):
ins = intr['in']
args = []
if _is_vector_class(intr):
if 'raw' in intr['variants']:
assert len(intr['variants']) == 1, "Unexpected length of variants"
args = ["uint8_t size"]
else:
args = ["uint8_t elem_size", "uint8_t elem_num"]
if (_is_signed(intr) and _is_unsigned(intr)):
args += ['bool is_signed']
args += [
'%s arg%d' % (
_get_semantic_player_type(op, intr.get('sem-player-types'), listener), num)
for num, op in enumerate(ins)
]
result = _get_semantics_player_hook_result(intr, listener)
return result, name, ', '.join(args)
def _get_semantics_player_hook_proto(name, intr, make_template=True, listener=''):
if listener != '':
make_template = False
result, name, params = _get_semantics_player_hook_proto_components(name, intr, listener)
if intr.get('class') == 'template':
template_parameters = _get_template_parameters(intr.get('variants'), extra = [])
if make_template:
spec_arguments = _get_template_spec_arguments(intr.get('variants'))
values = ', ' + ', '.join(
['intrinsics::Value<%s>' % argument for argument in spec_arguments])
return 'template<%s>\n%s %s(%s%s)' % (
template_parameters, result, name, params, values)
else:
return '%s %s%s(%s, %s)' % (
result, listener, name, params, template_parameters)
return '%s %s(%s)' % (result, name, params)
def _get_interpreter_hook_call_expr(name, intr, desc=None):
ins = intr['in']
outs = intr['out']
call_params = []
for num, op in enumerate(ins):
arg = 'arg%d' % (num)
semantic_player_type = _get_semantic_player_type(
op, intr.get('sem-player-types'))
if semantic_player_type == 'FpRegister':
if op.startswith('Type'):
op = 'intrinsics::TypeFromId<%s>' % op
call_params.append('FPRegToFloat<%s>(%s)' % (op, arg))
elif semantic_player_type == 'SimdRegister':
call_params.append(_get_cast_from_simd128(arg, op, ptr_bits=64))
elif '*' in _get_c_type(op):
call_params.append('berberis::bit_cast<%s>(%s)' % (_get_c_type(op), arg))
else:
c_type = _get_c_type(op)
if c_type.startswith('Type'):
c_type = 'intrinsics::TypeFromId<%s>' % c_type
call_params.append('GPRRegToInteger<%s>(%s)' % (c_type, arg))
call_expr = 'intrinsics::%s%s(%s)' % (
name, _get_desc_specializations(intr, desc), ', '.join(call_params))
if len(outs) == 1:
# Unwrap tuple for single result.
call_expr = 'std::get<0>(%s)' % call_expr
if 'sem-player-types' in intr:
out_type = _get_semantic_player_type(outs[0], intr.get('sem-player-types'))
if out_type == "FpRegister":
call_expr = 'FloatToFPReg(%s)' % call_expr
elif out_type != "SimdRegister":
assert out_type == "Register"
assert not _is_simd128_conversion_required(
outs[0], intr.get('sem-player-types'))
call_expr = 'IntegerToGPRReg(%s)' % call_expr
else:
# Currently this kind of mismatch can only happen for single result, so we
# can keep simple code here for now.
if _is_simd128_conversion_required(outs[0]):
out_type = _get_c_type(outs[0])
if out_type in ('Float16', 'Float32', 'Float64'):
call_expr = 'FloatToFPReg(%s)' % call_expr
else:
raise Exception('Type %s is not supported' % (out_type))
else:
if any(_is_simd128_conversion_required(out) for out in outs):
raise Exception(
'Unsupported SIMD128Register conversion with multiple results')
return call_expr
def _get_interpreter_hook_return_stmt(name, intr, desc=None):
return 'return ' + _get_interpreter_hook_call_expr(name, intr, desc) + ';'
def _get_unused(intr):
call_expr = 'UNUSED(%s);' % ', '.join('arg%d' % (num) for num, _ in enumerate(intr['in']))
return call_expr
def _get_placeholder_return_stmt(intr, f):
print(INDENT + _get_unused(intr), file=f)
outs = intr['out']
if outs:
print(INDENT + 'return {};', file=f)
def _get_semantics_player_hook_raw_vector_body(name, intr, get_return_stmt):
outs = intr['out']
if (len(outs) == 0):
raise Exception('No result raw vector intrinsic is not supported')
reg_class = intr.get('class')
yield 'switch (size) {'
for fmt, desc in _VECTOR_SIZES.items():
if _check_reg_class_size(reg_class, desc.num_elements / 8):
yield INDENT + 'case %s:' % desc.num_elements
yield 2 * INDENT + get_return_stmt(name, intr, desc)
yield INDENT + 'default:'
yield 2 * INDENT + 'LOG_ALWAYS_FATAL("Unsupported size");'
yield '}'
def _is_signed(intr):
return any(v.startswith("signed") for v in intr['variants'])
def _is_unsigned(intr):
return any(v.startswith("unsigned") for v in intr['variants'])
def _get_vector_format_init_expr(intr):
variants = intr.get('variants')
if ('Float16' in variants or 'Float32' in variants or 'Float64' in variants):
return 'intrinsics::GetVectorFormatFP(elem_size, elem_num)'
assert _is_signed(intr) or _is_unsigned(intr), "Unexpected intrinsic class"
if _is_signed(intr) and _is_unsigned(intr):
signed_arg = ', is_signed'
else:
signed_arg = ', true' if _is_signed(intr) else ', false'
return 'intrinsics::GetVectorFormatInt(elem_size, elem_num%s)' % signed_arg
def _get_semantics_player_hook_vector_body(name, intr, get_return_stmt):
outs = intr['out']
if (len(outs) == 0):
raise Exception('No result vector intrinsic is not supported')
reg_class = intr.get('class')
yield 'auto format = %s;' % _get_vector_format_init_expr(intr)
yield 'switch (format) {'
for variant in intr.get('variants'):
for fmt, desc in _VECTOR_FORMATS.items():
if (_check_reg_class_size(reg_class,
desc.element_size * desc.num_elements) and
_check_typed_variant(variant, desc)):
yield INDENT + 'case intrinsics::kVector%s:' % fmt
yield 2 * INDENT + get_return_stmt(name, intr, desc)
elif (reg_class in ('vector_8/single', 'vector_8/16/single', 'vector_16/single') and
desc.num_elements == 1 and
_check_typed_variant(variant, desc)):
assert desc.element_size <= 8, "Unexpected element size"
yield INDENT + 'case intrinsics::kVector%s:' % fmt
yield 2 * INDENT + get_return_stmt(name, intr, desc)
yield INDENT + 'default:'
yield 2 * INDENT + 'LOG_ALWAYS_FATAL("Unsupported format");'
yield '}'
# Syntax sugar heavily used in tests.
def _get_interpreter_hook_vector_body(name, intr):
return _get_semantics_player_hook_vector_body(
name, intr, _get_interpreter_hook_return_stmt)
def _gen_interpreter_hook(f, name, intr, option):
if intr.get('class') == 'template':
print('#ifndef BERBERIS_INTRINSICS_HOOKS_INLINE_DEMULTIPLEXER\n'
'%s const;\n#endif' % (
_get_semantics_player_hook_proto(name, intr, make_template=False)), file=f)
print('%s const {' % (
_get_semantics_player_hook_proto(name, intr)), file=f)
if _is_vector_class(intr):
if 'raw' in intr['variants']:
assert len(intr['variants']) == 1, "Unexpected length of variants"
lines = _get_semantics_player_hook_raw_vector_body(
name,
intr,
_get_interpreter_hook_return_stmt)
else:
lines = _get_interpreter_hook_vector_body(name, intr)
lines = [INDENT + l for l in lines]
print('\n'.join(lines), file=f)
else:
# TODO(b/363057506): Add float support and clean up the logic here.
arm64_allowlist = ['AmoAdd', 'AmoAnd', 'AmoMax', 'AmoMin', 'AmoOr', 'AmoSwap', 'AmoXor', 'Bclr',
'Bclri', 'Bext', 'Bexti', 'Binv', 'Binvi', 'Bset', 'Bseti', 'DivRiscV', 'Max',
'Min', 'RemRiscV', 'Rev8', 'Rol', 'Ror', 'Sext', 'Sh1add', 'Sh1adduw', 'Sh2add',
'Sh2adduw', 'Sh3add', 'Sh3adduw', 'Zext', 'UnboxNan']
if (option == 'arm64') and (name not in arm64_allowlist):
_get_placeholder_return_stmt(intr, f)
else:
print(INDENT + _get_interpreter_hook_return_stmt(name, intr), file=f)
print('}\n', file=f)
def _get_translator_hook_call_expr(name, intr, desc=None):
desc_spec = _get_desc_specializations(intr, desc)
args = [('arg%d' % n) for n, _ in enumerate(intr['in'])]
template_params = ['&intrinsics::' + name + desc_spec]
template_params += [_get_semantics_player_hook_result(intr)]
return 'CallIntrinsic<%s>(%s)' % (', '.join(template_params), ', '.join(args))
def _get_translator_hook_return_stmt(name, intr, desc=None):
return 'return ' + _get_translator_hook_call_expr(name, intr, desc) + ';'
def _gen_translator_hook(f, name, intr):
if intr.get('class') == 'template':
print('#ifndef BERBERIS_INTRINSICS_HOOKS_INLINE_DEMULTIPLEXER\n'
'%s;\n#endif' % (
_get_semantics_player_hook_proto(name, intr, make_template=False)), file=f)
print('%s {' % (
_get_semantics_player_hook_proto(name, intr)), file=f)
if _is_vector_class(intr):
if 'raw' in intr['variants']:
assert len(intr['variants']) == 1, "Unexpected length of variants"
lines = _get_semantics_player_hook_raw_vector_body(
name,
intr,
_get_translator_hook_return_stmt)
else:
lines = _get_semantics_player_hook_vector_body(
name,
intr,
_get_translator_hook_return_stmt)
lines = [INDENT + l for l in lines]
print('\n'.join(lines), file=f)
else:
print(INDENT + _get_translator_hook_return_stmt(name, intr), file=f)
print('}\n', file=f)
def _get_expectations_for_variant(variant):
expectations = []
for param in variant.split(','):
param = param.strip()
if (re.search('[_a-zA-Z]', param) and
not param in (['true', 'false'] + _ROUNDING_MODES)):
expectations.append('intrinsics::kIdFromType<%s>' % param)
else:
expectations.append(param)
return expectations
def _get_semantics_player_hook_template_switch(name, intr):
variables = _get_template_spec_arguments(intr.get('variants'))
yield 'switch (intrinsics::TrivialDemultiplexer(%s)) {' % ', '.join(variables)
for variant in intr.get('variants'):
expectations = _get_expectations_for_variant(variant)
yield '%scase intrinsics::TrivialDemultiplexer(%s):' % (
INDENT, ', '.join(expectations))
yield 2 * INDENT + "// Disable LOG_NDEBUG to use DCHECK for debugging!"
for expectation, variable in zip(expectations, variables):
yield 2 * INDENT + 'DCHECK_EQ(%s, %s);' % (expectation, variable)
yield 2 * INDENT + 'return %s(%s);' % (
name,
','.join(list('arg%d' % arg[0] for arg in enumerate(intr['in'])) +
list(f'intrinsics::Value<{expectation}>{{}}'
for expectation in expectations)))
yield INDENT + 'default:'
yield 2 * INDENT + 'FATAL("Unsupported size");'
yield '}'
def _gen_demultiplexer_hook(f, name, intr):
print('%s BERBERIS_INTRINSICS_HOOKS_CONST {' % _get_semantics_player_hook_proto(
name, intr, listener=' BERBERIS_INTRINSICS_HOOKS_LISTENER '), file=f)
lines = _get_semantics_player_hook_template_switch(name, intr)
lines = [INDENT + l for l in lines]
print('\n'.join(lines), file=f)
print('}\n', file=f)
def _gen_mock_semantics_listener_hook(f, name, intr):
result, name, params = _get_semantics_player_hook_proto_components(name, intr)
if intr.get('class') == 'template':
spec_arguments = _get_template_spec_arguments(intr.get('variants'))
template_parameters = _get_template_parameters(intr.get('variants'), extra = [])
args = ', '.join([('arg%d' % n) for n, _ in enumerate(intr['in'])] + spec_arguments)
values = ', ' + ', '.join(
['intrinsics::Value<%s>' % argument for argument in spec_arguments])
print('template<%s>\n%s %s(%s%s) {' % (
template_parameters, result, name, params, values), file=f)
_gen_template_parameters_verifier(f, intr)
print('%sreturn %s(%s);\n}' % (INDENT, name, args), file=f)
params = ', '.join(
[params] +
['%s %s' % (
{
'kBoo': 'bool',
'kInt': 'int',
'Type': 'intrinsics::TemplateTypeId'
}[argument[0:4]],
argument)
for argument in spec_arguments])
print('MOCK_METHOD((%s), %s, (%s));' % (result, name, params), file=f)
def _gen_template_parameters_verifier(f, intr):
received_params = ', '.join(_get_template_spec_arguments(intr.get('variants')))
print('%sstatic_assert(%s);' % (
INDENT,
' || '.join(
'std::tuple{%s} == std::tuple{%s}' % (
received_params,
', '.join(_get_expectations_for_variant(variant)))
for variant in intr.get('variants'))), file=f)
def _check_signed_variant(variant, desc):
if variant == 'signed':
return True
if variant == 'signed_32':
return desc.element_size == 4
if variant == 'signed_64':
return desc.element_size == 8
if variant == 'signed_16/32':
return desc.element_size in (2, 4)
if variant == 'signed_8/16/32':
return desc.element_size in (1, 2, 4)
if variant == 'signed_16/32/64':
return desc.element_size in (2, 4, 8)
if variant == 'signed_8/16/32/64':
return desc.element_size in (1, 2, 4, 8)
if variant == 'signed_32/64':
return desc.element_size in (4, 8)
return False
def _check_unsigned_variant(variant, desc):
if variant == 'unsigned':
return True
if variant == 'unsigned_8':
return desc.element_size == 1
if variant == 'unsigned_16':
return desc.element_size == 2
if variant == 'unsigned_32':
return desc.element_size == 4
if variant == 'unsigned_64':
return desc.element_size == 8
if variant == 'unsigned_8/16':
return desc.element_size in (1, 2)
if variant == 'unsigned_8/16/32':
return desc.element_size in (1, 2, 4)
if variant == 'unsigned_16/32/64':
return desc.element_size in (2, 4, 8)
if variant == 'unsigned_8/16/32/64':
return desc.element_size in (1, 2, 4, 8)
if variant == 'unsigned_32/64':
return desc.element_size in (4, 8)
return False
def _check_reg_class_size(reg_class, size):
# Small vectors are separate namespace.
if size == 4 and reg_class == 'vector_4':
return True
if size == 8 and reg_class in ('vector_8', 'vector_8/16', 'vector_8/16/single',
'vector_8/single'):
return True
if size == 16 and reg_class in ('vector_16', 'vector_8/16', 'vector_8/16/single',
'vector_16/single'):
return True
return False
def _check_typed_variant(variant, desc):
if desc.is_unsigned and not desc.is_float:
return _check_unsigned_variant(variant, desc)
if not desc.is_unsigned and not desc.is_float:
return _check_signed_variant(variant, desc)
if desc.is_float:
if desc.element_size == 2:
return variant == 'Float16'
if desc.element_size == 4:
return variant == 'Float32'
if desc.element_size == 8:
return variant == 'Float64'
return False
def _get_formats_with_descriptions(intr):
reg_class = intr.get('class')
for variant in intr.get('variants'):
found_fmt = False
for fmt, desc in _VECTOR_FORMATS.items():
if (_check_reg_class_size(reg_class,
desc.element_size * desc.num_elements) and
_check_typed_variant(variant, desc) and
(reg_class != 'vector_4' or desc.element_size < 4)):
found_fmt = True
yield fmt, desc
if variant == 'raw':
for fmt, desc in _VECTOR_SIZES.items():
if _check_reg_class_size(reg_class, desc.num_elements / 8):
found_fmt = True
yield fmt, desc
assert found_fmt, 'Couldn\'t expand %s' % reg_class
def _get_result_type(outs):
result_type = 'void'
return_stmt = ''
if len(outs) >= 1:
result_type = ('std::tuple<' +
', '.join(_get_c_type(out) for out in outs) + '>')
return_stmt = 'return '
return result_type, return_stmt
def _get_in_params(params):
for param_index, param in enumerate(params):
yield _get_c_type(param), 'in%d' % (param_index)
def _get_out_params(params):
for param_index, param in enumerate(params):
yield _get_c_type(param), 'out%d' % (param_index)
def _get_cast_from_simd128(var, target_type, ptr_bits):
if ('*' in target_type):
return 'berberis::bit_cast<%s>(%s.Get<uint%d_t>(0))' % (_get_c_type(target_type), var,
ptr_bits)
c_type = _get_c_type(target_type)
if c_type in ('Float16', 'Float32', 'Float64'):
return 'FPRegToFloat<%s>(%s)' % (c_type, var)
cast_map = {
'int8_t': '.Get<int8_t>(0)',
'uint8_t': '.Get<uint8_t>(0)',
'int16_t': '.Get<int16_t>(0)',
'uint16_t': '.Get<uint16_t>(0)',
'int32_t': '.Get<int32_t>(0)',
'uint32_t': '.Get<uint32_t>(0)',
'int64_t': '.Get<int64_t>(0)',
'uint64_t': '.Get<uint64_t>(0)',
'SIMD128Register': ''
}
return '%s%s' % (var, cast_map[c_type])
def _get_desc_specializations(intr, desc=None):
if intr.get('class') == 'template':
spec = _get_template_spec_arguments(intr.get('variants'), use_type_id=True)
elif hasattr(desc, 'c_type'):
spec = [desc.c_type, str(desc.num_elements)]
elif hasattr(desc, 'num_elements'):
spec = [str(desc.num_elements)]
else:
spec = []
if intr.get('precise_nans', False):
spec = ['config::kPreciseNaNOperationsHandling'] + spec
if not len(spec):
return ''
return '<%s>' % ', '.join(spec)
def _get_template_spec_arguments(variants, use_type_id=False):
spec = None
for variant in variants:
counter = -1
def get_counter():
nonlocal counter
counter += 1
return counter
new_spec = [
'kBool%s' % get_counter() if param.strip() in ('true', 'false') else
'kInt%s' % get_counter() if param.strip() in _ROUNDING_MODES else
('intrinsics::TypeFromId<Type%d>' % get_counter()
if use_type_id else
'Type%d' % get_counter())
if re.search('[_a-zA-Z]', param) else
'kInt%s' % get_counter()
for param in variant.split(',')]
assert spec is None or spec == new_spec
spec = new_spec
return spec
def _intr_has_side_effects(intr, fmt=None):
ins = intr.get('in')
outs = intr.get('out')
# If we have 'has_side_effects' mark in JSON file then we use it "as is".
if 'has_side_effects' in intr:
return intr.get('has_side_effects')
# Otherwise we mark all floating-point related intrinsics as "volatile".
# TODO(b/68857496): move that information in HIR/LIR and stop doing that.
if 'Float16' in ins or 'Float32' in ins or 'Float64' in ins:
return True
if 'Float16' in outs or 'Float32' in outs or 'Float64' in outs:
return True
if fmt is not None and fmt.startswith('F'):
return True
return False
def _gen_intrinsics_inl_h(f, intrs):
print(AUTOGEN, file=f)
for name, intr in intrs:
if intr.get('class') == 'scalar':
_gen_scalar_intr_decl(f, name, intr)
elif intr.get('class') == 'template':
_gen_template_intr_decl(f, name, intr)
else:
assert intr.get('class').startswith('vector')
_gen_vector_intr_decl(f, name, intr)
def _gen_semantic_player_types(intrs):
for name, intr in intrs:
if intr.get('class') == 'template':
map = None
for variant in intr.get('variants'):
counter = -1
def get_counter():
nonlocal counter
counter += 1
return counter
new_map = {
'Float16': 'FpRegister',
'Float32': 'FpRegister',
'Float64': 'FpRegister',
}
for type in filter(
lambda param: param.strip() not in ('true', 'false') and
re.search('[_a-zA-Z]', param),
variant.split(',')):
new_map['Type%d' % get_counter()] = (
'FpRegister' if type.strip() in ('Float16', 'Float32', 'Float64') else
_get_semantic_player_type(type, None))
if map is None:
map = new_map
elif map != new_map:
# Note: we would use literal `False` as type, which would lead to
# compile-time error… that's Ok, because mix of ints and floats may
# only happen with vector intrinsics where types used are
# never arguments, but just specify type of vector element.
# If intrinsics actually have to receive such arguments that such
# intrinsics should be split in two.
map = False
intr['sem-player-types'] = map
def _gen_interpreter_intrinsics_hooks_impl_inl_h(f, intrs, option):
print(AUTOGEN, file=f)
for name, intr in intrs:
_gen_interpreter_hook(f, name, intr, option)
def _gen_translator_intrinsics_hooks_impl_inl_h(f, intrs):
print(AUTOGEN, file=f)
for name, intr in intrs:
_gen_translator_hook(f, name, intr)
def _gen_demultiplexer_intrinsics_hooks_impl_inl_h(f, intrs):
print(AUTOGEN, file=f)
print("""
#ifndef BERBERIS_INTRINSICS_HOOKS_LISTENER
#define BERBERIS_INTRINSICS_HOOKS_LISTENER
#endif
#ifndef BERBERIS_INTRINSICS_HOOKS_CONST
#define BERBERIS_INTRINSICS_HOOKS_CONST
#endif
#ifndef BERBERIS_INTRINSICS_HOOKS_SHARDS_COUNT
#define BERBERIS_INTRINSICS_HOOKS_SHARDS_COUNT 1
#define BERBERIS_INTRINSICS_HOOKS_SHARD 0
#endif
""", file=f)
counter = 0
for name, intr in intrs:
if intr.get('class') == 'template':
print('#if %d %% BERBERIS_INTRINSICS_HOOKS_SHARDS_COUNT == '
'BERBERIS_INTRINSICS_HOOKS_SHARD' % counter, file=f)
_gen_demultiplexer_hook(f, name, intr)
print('#endif', file=f)
counter += 1
def _gen_mock_semantics_listener_intrinsics_hooks_impl_inl_h(f, intrs):
print(AUTOGEN, file=f)
for name, intr in intrs:
_gen_mock_semantics_listener_hook(f, name, intr)
def _get_binding_info(arg):
need_tmp = arg['class'] in ('EAX', 'EDX', 'CL', 'ECX', 'RAX', 'RDX')
if arg['class'] == 'Imm8':
return 'ImmArg<%d>' % (arg['ir_arg'])
if arg['usage'] == 'use':
if need_tmp:
return 'InTmpArg<%d>' % arg['ir_arg']
return 'InArg<%d>' % arg['ir_arg']
if arg['usage'] in ('def', 'def_early_clobber'):
assert 'ir_arg' not in arg
if 'ir_res' in arg:
if need_tmp:
return 'OutTmpArg<%d>' % arg['ir_res']
return 'OutArg<%d>' % arg['ir_res']
return 'TmpArg'
if arg['usage'] == 'use_def':
if 'ir_res' in arg:
if need_tmp:
return 'InOutTmpArg<%s, %s>' % (arg['ir_arg'], arg['ir_res'])
return 'InOutArg<%s, %s>' % (arg['ir_arg'], arg['ir_res'])
return 'InTmpArg<%s>' % (arg['ir_arg'])
assert False, 'unknown operand usage %s' % (arg['usage'])
def _get_bindings_info(args):
return 'std::tuple<%s>' % ', '.join(_get_binding_info(arg) for arg in args)
def _gen_process_all_bindings(f, intrs, archs):
print("%s" % AUTOGEN, file=f)
callback_lines = []
for line in _gen_c_intrinsics_generator(
intrs, _is_interpreter_compatible_assembler, False):
callback_lines.append(line)
# Put implementation into arch-specific namespace to access bindings.
print("namespace %s {\n" % archs[-1], file = f)
print("""
template <typename MacroAssemblers,
typename Callback,
typename... Args>
constexpr void ProcessAllBindings([[maybe_unused]] Callback callback,
[[maybe_unused]] Args&&... args) {
using berberis::intrinsics::Float16;
using berberis::intrinsics::Float32;
using berberis::intrinsics::Float64;""",
file=f)
for line in callback_lines:
print(line, file=f)
print("""
}
} // namespace %s
using %s::ProcessAllBindings;
""" % (archs[-1], archs[-1]), file=f)
def _gen_process_bindings(f, intrs, archs):
print("%s" % AUTOGEN, file=f)
callback_lines = []
for line in _gen_c_intrinsics_generator(
intrs, _is_translator_compatible_assembler, True):
callback_lines.append(line)
# Include definitions of registers for appropriate type of bindings
print('#include "berberis/device_arch_info/%s/device_arch_info.h"' % archs[-1], file = f)
# Put implementation into arch-specific namespace to access bindings.
print('namespace berberis{\n\nnamespace %s::intrinsics::bindings {' % archs[-1], file = f)
print("""
template <auto kFunction>
using FunctionCompareTag = berberis::intrinsics::bindings::FunctionCompareTag<kFunction>;
template <auto kFunc,
typename MacroAssemblers,
typename Result,
typename Callback,
typename... Args>
constexpr Result ProcessBindings(Callback callback, Result def_result, Args&&... args) {
using berberis::intrinsics::Float16;
using berberis::intrinsics::Float32;
using berberis::intrinsics::Float64;""",
file=f)
for line in callback_lines:
print(line, file=f)
print(""" }
return std::forward<Result>(def_result);
}
} // namespace %s::intrinsics::bindings
namespace intrinsics::bindings {
using %s::intrinsics::bindings::ProcessBindings;
} // namespace intrinsics::bindings
} // namespace berberis
""" % (archs[-1], archs[-1]), file=f)
def _gen_c_intrinsics_generator(intrs, check_compatible_assembler, gen_builder):
processed_names = set()
for name, intr in intrs:
ins = intr.get('in')
outs = intr.get('out')
params = _get_in_params(ins)
formal_args = ', '.join('%s %s' % (type, param) for type, param in params)
result_type, _ = _get_result_type(outs)
if 'asm' not in intr:
continue
if 'variants' in intr:
variants = _get_formats_with_descriptions(intr)
# Sort by index, to keep order close to what _gen_intrs_enum produces.
variants = sorted(variants, key=lambda variant: variant[1].index)
# Collect intr_asms for all versions of intrinsic.
# Note: not all variants are guaranteed to have asm version!
# If that happens list of intr_asms for that variant would be empty.
variants = [(desc, [
intr_asm for intr_asm in _gen_sorted_asms(intr)
if fmt in intr_asm['variants']
]) for fmt, desc in variants]
# Print intrinsic generator
for desc, intr_asms in variants:
if len(intr_asms) > 0:
if 'raw' in intr['variants']:
spec = '%d' % (desc.num_elements)
else:
spec = '%s, %d' % (desc.c_type, desc.num_elements)
for intr_asm in intr_asms:
for line in _gen_c_intrinsic('%s<%s>' % (name, spec),
intr,
intr_asm,
processed_names,
check_compatible_assembler,
gen_builder):
yield line
else:
for intr_asm in _gen_sorted_asms(intr):
for line in _gen_c_intrinsic(name,
intr,
intr_asm,
processed_names,
check_compatible_assembler,
gen_builder):
yield line
def _gen_sorted_asms(intr):
return sorted(intr['asm'],
key = lambda intr:
intr.get('nan', '') +
_KNOWN_FEATURES_KEYS.get(
intr.get('feature', ''), intr.get('feature', '')), reverse = True)
_KNOWN_FEATURES_KEYS = {
'LZCNT': '001',
'BMI': '002',
'BMI2': '003',
'SSE': '010',
'SSE2': '011',
'SSE3': '012',
'SSSE3': '013',
'SSE4a': '014',
'SSE4_1': '015',
'SSE4_2': '016',
'AVX': '017',
'AVX2': '018',
'AES': '019',
'AESAVX': '020',
'VAES': '021',
'CLMUL': '012',
'CLMULAVX': '023',
'VPCLMULQD': '024',
'F16C': '025',
'FMA': '026',
'FMA4': '027',
'CustomCapability': '999'
}
def _gen_c_intrinsic(
name, intr, asm, processed_names, check_compatible_assembler, gen_builder):
if not check_compatible_assembler(asm):
return
cpuid_restriction = gen_device_insn_info_lib._get_cpuid_restriction(asm)
nan_restriction = 'berberis::intrinsics::bindings::NoNansOperation'
if 'nan' in asm:
nan_restriction = 'berberis::intrinsics::bindings::%sNanOperationsHandling' % asm['nan']
template_arg = 'true' if asm['nan'] == "Precise" else "false"
if '<' in name:
template_pos = name.index('<')
name = name[0:template_pos+1] + template_arg + ", " + name[template_pos+1:]
else:
name += '<' + template_arg + '>'
if name not in processed_names:
if gen_builder:
yield ' %s if constexpr (std::is_same_v<FunctionCompareTag<kFunc>,' % (
'' if len(processed_names) == 0 else ' } else'
)
yield '%s FunctionCompareTag<berberis::intrinsics::%s>>) {' % (' ' * 36, name)
processed_names.add(name)
restriction = [cpuid_restriction, nan_restriction]
if gen_builder:
yield ' if (auto result = callback('
else:
yield ' callback('
yield ' berberis::intrinsics::bindings::IntrinsicBindingInfo<'
yield ' %s,' % (
',\n '.join(
['"%s"' % name,
nan_restriction,
_get_c_type_tuple(intr['in']),
_get_c_type_tuple(intr['out']),
_get_bindings_info(asm['args'])]))
yield ' device_arch_info::DeviceInsnInfo<%s>>(),' % (
',\n '.join(
[gen_device_insn_info_lib._get_asm_reference(asm),
'"%s"' % asm['mnemo'],
'true' if _intr_has_side_effects(intr) else 'false',
gen_device_insn_info_lib._get_opcode_reference(asm),
cpuid_restriction,
gen_device_insn_info_lib._get_reg_operands_info(asm['args'])]))
if gen_builder:
yield ' std::forward<Args>(args)...); result.has_value()) {'
yield ' return *std::move(result);'
yield ' }'
else:
yield ' std::forward<Args>(args)...);'
def _get_c_type_tuple(arguments):
return 'std::tuple<%s>' % ', '.join(
_get_c_type(argument) for argument in arguments)
def _load_intrs_def_files(intrs_def_files):
result = {}
for intrs_def in intrs_def_files:
with open(intrs_def) as intrs:
result.update(json.load(intrs))
result.pop('License', None)
return result
def _load_intrs_arch_def(intrs_defs):
json_data = []
for intrs_def in intrs_defs:
with open(intrs_def) as intrs:
json_array = json.load(intrs)
while isinstance(len(json_array) > 0 and json_array[0], str):
json_array.pop(0)
json_data.extend(json_array)
return json_data
def _load_macro_def(intrs, arch_intrs, insns_def, macroassembler):
arch, insns = asm_defs.load_asm_defs(insns_def)
for insn in insns:
insn['macroassembler'] = macroassembler
insns_map = dict((insn['name'], insn) for insn in insns)
unprocessed_intrs = []
for arch_intr in arch_intrs:
if arch_intr['insn'] in insns_map:
insn = insns_map[arch_intr['insn']]
_add_asm_insn(intrs, arch_intr, insn)
else:
unprocessed_intrs.append(arch_intr)
return arch, unprocessed_intrs
def _is_interpreter_compatible_assembler(intr_asm):
if intr_asm.get('usage', '') == 'inline-only':
return False
return True
def _is_translator_compatible_assembler(intr_asm):
if intr_asm.get('usage', '') == 'no-inline':
return False
return True
def _add_asm_insn(intrs, arch_intr, insn):
name = ','.join(name_part.strip() for name_part in arch_intr['name'].split(','))
# Sanity checks: MacroInstruction could implement few different intrinsics but
# number of arguments in arch intrinsic and arch-independent intrinsic
# should match.
#
# Note: we allow combining intrinsics with variants and intrinsics without
# variants (e.g. AbsF32 is combined with VectorAbsoluteFP for F32x2 and F32x4),
# but don't allow macroinstructions which would handle different set of
# variants for different intrinsics.
assert 'variants' not in insn or insn['variants'] == arch_intr['variants']
assert 'feature' not in insn or insn['feature'] == arch_intr['feature']
assert 'nan' not in insn or insn['nan'] == arch_intr['nan']
assert 'usage' not in insn or insn['usage'] == arch_intr['usage']
# Some intrinsics have extra inputs which can be ignored. e,g fpcr could be
# ignored when not needed for precise emulation of NaNs.
# Therefore we check that number inputs to (macro) instruction is less than
# or equal to number of inputs to number of inputs to intrinsic.
assert len(intrs[name]['in']) >= len(arch_intr['in'])
assert len(intrs[name]['out']) == len(arch_intr['out'])
if 'variants' in arch_intr:
insn['variants'] = arch_intr['variants']
if 'feature' in arch_intr:
insn['feature'] = arch_intr['feature']
if 'nan' in arch_intr:
insn['nan'] = arch_intr['nan']
if 'usage' in arch_intr:
insn['usage'] = arch_intr['usage']
for count, in_arg in enumerate(arch_intr['in']):
# Sanity check: each in argument should only be used once - but if two
# different intrinsics use them same macroinstruction it could be already
# defined... yet it must be defined identically.
assert ('ir_arg' not in insn['args'][in_arg] or
insn['args'][in_arg]['ir_arg'] == count)
insn['args'][in_arg]['ir_arg'] = count
for count, out_arg in enumerate(arch_intr['out']):
# Sanity check: each out argument should only be used once, too.
assert ('ir_res' not in insn['args'][out_arg] or
insn['args'][out_arg]['ir_res'] == count)
insn['args'][out_arg]['ir_res'] = count
# Note: one intrinsic could have more than one implementation (e.g.
# SSE2 vs SSE4.2).
if 'asm' not in intrs[name]:
intrs[name]['asm'] = []
intrs[name]['asm'].append(insn)
def _open_asm_def_files(def_files, arch_def_files, asm_def_files):
intrs = _load_intrs_def_files(def_files)
expanded_intrs = _expand_template_intrinsics(intrs)
arch_intrs = _load_intrs_arch_def(arch_def_files)
archs = []
assemblers = 0
for macro_def in asm_def_files:
arch, arch_intrs = _load_macro_def(expanded_intrs, arch_intrs, macro_def, assemblers)
if arch is not None:
archs.append(arch)
assemblers += 1
# Make sure that all intrinsics were found during processing of arch_intrs.
assert arch_intrs == []
return archs, sorted(intrs.items()), sorted(expanded_intrs.items())
def _expand_template_intrinsics(intrs):
expanded_intrs = {}
for name, intr in intrs.items():
if intr.get('class') != 'template':
expanded_intrs[name] = intr
else:
variants = intr.get('variants').copy()
# These intrinsics serve a dual duty:
# 1. They are used to implement regular instructions.
# 2. They are used to implement vector instrinsics.
# And there's a dilemma: 8bit and 16bit sizes are not supported in #1 but
# are needed for #2.
# This hack helps us to resolve it. If we would have more such intrinsics
# we may need to extend JSON capabilities.
if name in ('Aadd', 'Asub', 'DivRiscV', 'RemRiscV', 'Roundoff'):
if 'int8_t' not in variants: variants += ['int8_t']
if 'uint8_t' not in variants: variants += ['uint8_t']
if 'int16_t' not in variants: variants += ['int16_t']
if 'uint16_t' not in variants: variants += ['uint16_t']
for variant in variants:
types = {}
params = [param.strip() for param in variant.split(',')]
for param in params:
if param in ('true', 'false'):
continue
if re.search('[_a-zA-Z]', param):
types['Type'+str(len(types))] = param
new_intr = intr.copy()
del new_intr['variants']
new_intr['in'] = [types.get(param, param) for param in new_intr.get('in')]
new_intr['out'] = [types.get(param, param) for param in new_intr.get('out')]
expanded_intrs[name+'<'+','.join(params)+'>'] = new_intr
return expanded_intrs
def main(argv):
# Usage:
# gen_intrinsics.py --public_headers <intrinsics-inl.h>
# <intrinsics_process_bindings-inl.h>
# <interpreter_intrinsics_hooks-inl.h>
# <translator_intrinsics_hooks-inl.h>
# <demultiplexer_intrinsics_hooks-inl.h>,
# <mock_semantics_listener_intrinsics_hooks-inl.h>
# <riscv64_to_x86_64/intrinsic_def.json",
# ...
# <riscv64_to_x86_64/machine_ir_intrinsic_binding.json>,
# ...
# <riscv64_to_x86_64/macro_def.json>,
# ...
# gen_intrinsics.py --text_asm_intrinsics_bindings <make_intrinsics-inl.h>
# <riscv64_to_x86_64/intrinsic_def.json",
# ...
# <riscv64_to_x86_64/machine_ir_intrinsic_binding.json>,
# ...
# <riscv64_to_x86_64/macro_def.json>,
# ...
def open_out_file(name):
try:
os.makedirs(os.path.dirname(name))
except:
pass
return open(name, 'w')
# Temporary special case for riscv64 to arm64.
# TODO(b/362520361): generalize and combine with the below.
option = argv[1]
if option == 'arm64':
mode = argv[2]
out_files_end = 6
def_files_end = out_files_end
while argv[def_files_end].endswith('intrinsic_def.json'):
def_files_end += 1
if (def_files_end == len(argv)):
break
intrs = sorted(_load_intrs_def_files(argv[out_files_end:def_files_end]).items())
_gen_intrinsics_inl_h(open_out_file(argv[3]), intrs)
_gen_semantic_player_types(intrs)
_gen_interpreter_intrinsics_hooks_impl_inl_h(open_out_file(argv[4]), intrs, option)
_gen_demultiplexer_intrinsics_hooks_impl_inl_h(open_out_file(argv[5]), intrs)
return 0
mode = argv[1]
if mode in ('--text_asm_intrinsics_bindings', '--public_headers'):
out_files_end = 3 if mode == '--text_asm_intrinsics_bindings' else 8
def_files_end = out_files_end
while argv[def_files_end].endswith('intrinsic_def.json'):
def_files_end += 1
arch_def_files_end = def_files_end
while argv[arch_def_files_end].endswith('machine_ir_intrinsic_binding.json'):
arch_def_files_end += 1
archs, intrs, expanded_intrs = _open_asm_def_files(
argv[out_files_end:def_files_end],
argv[def_files_end:arch_def_files_end],
argv[arch_def_files_end:])
if mode == '--text_asm_intrinsics_bindings':
_gen_process_all_bindings(open_out_file(argv[2]), expanded_intrs, archs)
else:
_gen_intrinsics_inl_h(open_out_file(argv[2]), intrs)
_gen_process_bindings(open_out_file(argv[3]), expanded_intrs, archs)
_gen_semantic_player_types(intrs)
_gen_interpreter_intrinsics_hooks_impl_inl_h(open_out_file(argv[4]), intrs, '')
_gen_translator_intrinsics_hooks_impl_inl_h(
open_out_file(argv[5]), intrs)
_gen_demultiplexer_intrinsics_hooks_impl_inl_h(
open_out_file(argv[6]), intrs)
_gen_mock_semantics_listener_intrinsics_hooks_impl_inl_h(
open_out_file(argv[7]), intrs)
else:
assert False, 'unknown option %s' % (mode)
return 0
if __name__ == '__main__':
sys.exit(main(sys.argv))