def _second_pass(input_fname, symbol_table, output_fname):
"""Go through each line of assembly code and generate machine code.
Arguments
input_fname (string) - Name of the input file containing assembly code.
symbol_table (SymbolTable) - Symbol table.
output_fname (string) - Output file name of a file to write machine code to.
"""
# Variable symbols start at RAM address 16.
ram_address = 16
fout = open(output_fname, "w")
parser = Parser(input_fname)
while parser.has_more_commands():
parser.advance()
if parser.command_type() == Parser.A_COMMAND:
symbol = parser.symbol()
try:
# If the symbol is a decimal number convert it to a binary string.
fout.write("0" + Code.to_binary(int(symbol)) + "\n")
except ValueError:
# The symbol isn't a decimal number thus it must either be in the symbol table or it needs to be
# assigned a value.
if not symbol_table.contains(symbol):
symbol_table.add_entry(symbol, ram_address)
ram_address += 1
fout.write("0" + Code.to_binary(symbol_table.get_address(symbol)) + "\n")
elif parser.command_type() == Parser.C_COMMAND:
fout.write("111" + Code.comp(parser.comp()) + Code.dest(parser.dest()) + Code.jmp(parser.jmp()) + "\n")
# Ignore L_COMMAND, they have been looked at in the first pass.
fout.close()
def comp(self):
"""
Returns the comp menomonic in the current C_COMMAND (28 possibilities)
Should be called only when commandType() is C_COMMAND
return string
"""
if '=' in self.current_command:
c = self.current_command.split('=')[1]
elif ';' in self.current_command:
c = self.current_command.split(';')[0]
code = Code()
self.current_comp, self.current_a = code.comp(c)
def assemble(asm_file):
parser = Parser(asm_file)
fp_out = open("{}.hack".format(asm_file), "w")
while (parser.hasMoreCommands()):
parser.advance()
if parser.commandType() == Parser.L_CMD:
continue;
if parser.commandType() == Parser.A_CMD:
out_line = "0{:015b}".format(int(parser.symbol()))
else:
comp = Code.comp(parser.comp())
dest = Code.dest(parser.dest())
jump = Code.jump(parser.jump())
out_line = "111%s%s%s" % (comp, dest, jump)
fp_out.write("{}\n".format(out_line))
def jump(self):
"""
Returns the jump mnemonic in the current C_COMMAND (8 possibilities)
Should be called only when commandType() is C_COMMAND
returns string
"""
# equal: 000 jump
if ';' in self.current_command:
j = self.current_command.split(';')[1]
elif '=' in self.current_command:
j='null'
else:
j = None
code = Code()
self.current_jump = code.jump(j)
def dest(self):
"""
returns the dest mnemonic in the current C_COMMAND (8 possibilities).
Should be called only when AssmCommandType() is C_COMMAND
returns string
"""
# semicolon: 000 dest
if '=' in self.current_command:
d = self.current_command.split('=')[0]
else:
d='null'
code = Code()
self.current_dest = code.dest(d)
def main():
filename = os.path.join(os.getcwd(), Util.getCommandLineArg(1))
parser = Parser(filename)
hack_filename = filename.replace('asm', 'hack')
hack_file = open(hack_filename, 'w')
ann_filename = filename.replace('asm', 'ann')
ann_file = open(ann_filename, 'w')
while parser.has_more_commands():
parser.advance()
machine_command = ''
if parser.command_type() is 'A_COMMAND':
machine_command = '{0:016b}\n'.format(int(parser.symbol()))
hack_file.write(machine_command)
elif parser.command_type() is 'C_COMMAND':
dest = Code.dest(parser.dest())
comp = Code.comp(parser.comp())
jump = Code.jump(parser.jump())
machine_command = '111{0}{1}{2}\n'.format(comp, dest, jump)
hack_file.write(machine_command)
# elif parser.command_type() is 'L_COMMAND':
# parser.symbol()
assembly = parser.original_command().strip()
mc = machine_command.strip()
annotated_machine = '{} {} {} {}'.format(mc[0:4], mc[4:8], mc[8:12], mc[12:16])
annotated_command = '{:<39} // {:<11} {}\n'.format(assembly, parser.command, annotated_machine)
ann_file.write(annotated_command)
hack_file.close()
ann_file.close()
def _GenerateCreateCallbackArguments(self, function_scope, callback):
"""Generate all functions to create Value parameters for a callback.
E.g for function "Bar", generate Bar::Results::Create
E.g for event "Baz", generate Baz::Create
function_scope: the function scope path, e.g. Foo::Bar for the function
Foo::Bar::Baz(). May be None if there is no function scope.
callback: the Function object we are creating callback arguments for.
"""
c = Code()
params = callback.params
c.Concat(self._GeneratePropertyFunctions(function_scope, params))
(c.Sblock('scoped_ptr<base::ListValue> %(function_scope)s'
'Create(%(declaration_list)s) {').Append(
'scoped_ptr<base::ListValue> create_results('
'new base::ListValue());'))
declaration_list = []
for param in params:
declaration_list.append(
cpp_util.GetParameterDeclaration(
param, self._type_helper.GetCppType(param.type_)))
c.Append('create_results->Append(%s);' %
self._CreateValueFromType(param.type_, param.unix_name))
c.Append('return create_results.Pass();')
c.Eblock('}')
c.Substitute({
'function_scope':
('%s::' % function_scope) if function_scope else '',
'declaration_list':
', '.join(declaration_list),
'param_names':
', '.join(param.unix_name for param in params)
})
return c
def _GeneratePropertyStructures(self, props):
"""Generate the structures required by a property such as OBJECT classes
and enums.
"""
c = Code()
for prop in props:
if prop.type_ == PropertyType.OBJECT:
c.Concat(self._GenerateType(prop))
c.Append()
elif prop.type_ == PropertyType.CHOICES:
c.Concat(self._GenerateEnumDeclaration(
self._cpp_type_generator.GetChoicesEnumType(prop),
prop,
[choice.type_.name for choice in prop.choices.values()]))
c.Concat(self._GeneratePropertyStructures(prop.choices.values()))
elif prop.type_ == PropertyType.ENUM:
enum_name = self._cpp_type_generator.GetType(prop)
c.Concat(self._GenerateEnumDeclaration(
enum_name,
prop,
prop.enum_values))
c.Append('static scoped_ptr<Value> CreateEnumValue(%s %s);' %
(enum_name, prop.unix_name))
return c
def _parse_c_instruction(self, instruction):
# Maybe split instruction into 3 parts.
# Use a Code class
code = Code()
parsed = ""
if (len(instruction) == 1):
# Handle ALU instruction
mnemonics = instruction[0].split("=")
parsed += code.comp(mnemonics[1])
parsed += code.dest(mnemonics[0])
parsed += "000"
else:
parsed += code.comp(instruction[0])
parsed += "000"
parsed += code.jump(instruction[1])
return parsed
def _GenerateChoiceTypeToValue(self, cpp_namespace, type_):
"""Generates a function that serializes a choice-representing type
into a base::Value.
"""
c = Code()
c.Sblock('scoped_ptr<base::Value> %s::ToValue() const {' %
cpp_namespace)
c.Append('scoped_ptr<base::Value> result;')
for choice in type_.choices:
choice_var = 'as_%s' % choice.unix_name
(c.Sblock('if (%s) {' % choice_var).Append(
'DCHECK(!result) << "Cannot set multiple choices for %s";' %
type_.unix_name).Append(
'result.reset(%s);' % self._CreateValueFromType(
choice, '*%s' % choice_var)).Eblock('}'))
(c.Append('DCHECK(result) << "Must set at least one choice for %s";' %
type_.unix_name).Append('return result.Pass();').Eblock('}'))
return c
def Generate(self):
"""Generates a Code object with the schema for the entire namespace.
"""
c = Code()
(c.Append(LICENSE)
.Append()
.Append('/** @fileoverview Externs generated from namespace: %s */' %
self._namespace.name)
.Append())
c.Cblock(self._GenerateNamespaceObject())
for js_type in self._namespace.types.values():
c.Cblock(self._GenerateType(js_type))
for function in self._namespace.functions.values():
c.Cblock(self._GenerateFunction(function))
for event in self._namespace.events.values():
c.Cblock(self._GenerateEvent(event))
return c
def _GenerateType(self, cpp_namespace, type_):
"""Generates the function definitions for a type.
"""
classname = cpp_util.Classname(type_.name)
c = Code()
if type_.functions:
# Types with functions are not instantiable in C++ because they are
# handled in pure Javascript and hence have no properties or
# additionalProperties.
if type_.properties:
raise NotImplementedError('\n'.join(model.GetModelHierarchy(type_)) +
'\nCannot generate both functions and properties on a type')
for function in type_.functions.values():
(c.Concat(
self._GenerateFunction(
cpp_namespace + '::' + cpp_util.Classname(function.name),
function))
.Append()
)
elif type_.type_ == PropertyType.OBJECT:
(c.Concat(self._GeneratePropertyFunctions(
cpp_namespace, type_.properties.values()))
.Sblock('%(namespace)s::%(classname)s()')
.Concat(self._GenerateInitializersAndBody(type_))
.Eblock('%(namespace)s::~%(classname)s() {}')
.Append()
)
if type_.from_json:
(c.Concat(self._GenerateTypePopulate(cpp_namespace, type_))
.Append()
)
if type_.from_client:
(c.Concat(self._GenerateTypeToValue(cpp_namespace, type_))
.Append()
)
c.Substitute({'classname': classname, 'namespace': cpp_namespace})
return c
def setUp(self):
self.aars_space = AARS_Space(range(2), np.diag([1] * 2),
get_uniform_mutation_matrix(2, .01))
# mu is zero so that there is only 3 potential codes available
# and so the code is forced to handle mutants with a fixation
# probability of zero.
self.trna_space = TRNA_Space(range(2), np.diag([1] * 2), np.diag([1] * 2),
get_uniform_mutation_matrix(2, .01))
pchem_vals = [.30, .70]
self.site_types = Ring_Site_Types(.05, zip(range(2), pchem_vals),
zip(range(2), pchem_vals), [1] * 2)
message_mutation_matrix = get_uniform_mutation_matrix(2, .01)
#print message_mutation_matrix.shape
#print np.matrix([[.5, .5], [.5, .5]]).shape
self.code = Code([1], [1], self.trna_space, self.aars_space)
rng = Random()
rng.seed(42)
self.evolver = Evolver(self.code, self.site_types, message_mutation_matrix,
100, rng)
def _GenerateInitializersAndBody(self, type_):
items = []
for prop in type_.properties.values():
if prop.optional:
continue
t = prop.type_
if t == PropertyType.INTEGER:
items.append('%s(0)' % prop.unix_name)
elif t == PropertyType.DOUBLE:
items.append('%s(0.0)' % prop.unix_name)
elif t == PropertyType.BOOLEAN:
items.append('%s(false)' % prop.unix_name)
elif t == PropertyType.BINARY:
items.append('%s(NULL)' % prop.unix_name)
elif (t == PropertyType.ADDITIONAL_PROPERTIES or
t == PropertyType.ANY or
t == PropertyType.ARRAY or
t == PropertyType.CHOICES or
t == PropertyType.ENUM or
t == PropertyType.OBJECT or
t == PropertyType.REF or
t == PropertyType.STRING):
# TODO(miket): It would be nice to initialize CHOICES and ENUM, but we
# don't presently have the semantics to indicate which one of a set
# should be the default.
continue
else:
sys.exit("Unhandled PropertyType: %s" % t)
if items:
s = ': %s' % (', '.join(items))
else:
s = ''
s = s + ' {}'
return Code().Append(s)
def get_possible_codes(self):
if self._possible_codes is None:
num_aarss = self._aars_mutation_matrix.shape[0]
num_trnas = self._trna_mutation_matrix.shape[0]
encodable_trnas = len(self._initial_code.trnas)
encodable_aarss = len(self._initial_code.aarss)
aarss_prod = list(product(range(num_aarss),
repeat=encodable_aarss))
trnas_prod = list(product(range(num_trnas),
repeat=encodable_trnas))
self._possible_codes = [
Code(trnas, aarss, self._initial_code._trna_space,
self._initial_code._aars_space) for trnas in trnas_prod
for aarss in aarss_prod
]
potential_codes = (num_trnas**encodable_trnas) * (num_aarss**
encodable_aarss)
assert len(self._possible_codes) == potential_codes, \
"An incorrect number of potential codes was generated {} {}.".format(potential_codes, len(self._possible_codes))
return self._possible_codes
def eval(self, code, *args):
"""Evaluate a JavaScript expression on the Mongo server.
Useful if you need to touch a lot of data lightly; in such a scenario
the network transfer of the data could be a bottleneck. The `code`
argument must be a JavaScript function. Additional positional
arguments will be passed to that function when it is run on the
server.
Raises TypeError if `code` is not an instance of (str, unicode,
`Code`). Raises OperationFailure if the eval fails. Returns the result
of the evaluation.
:Parameters:
- `code`: string representation of JavaScript code to be evaluated
- `args` (optional): additional positional arguments are passed to
the `code` being evaluated
"""
if not isinstance(code, Code):
code = Code(code)
command = SON([("$eval", code), ("args", list(args))])
result = self._command(command)
return result.get("retval", None)
def _GenerateInitializersAndBody(self, type_):
items = []
for prop in type_.properties.values():
if prop.optional:
continue
t = prop.type_
if t.property_type == PropertyType.INTEGER:
items.append('%s(0)' % prop.unix_name)
elif t.property_type == PropertyType.DOUBLE:
items.append('%s(0.0)' % prop.unix_name)
elif t.property_type == PropertyType.BOOLEAN:
items.append('%s(false)' % prop.unix_name)
elif (t.property_type == PropertyType.ANY
or t.property_type == PropertyType.ARRAY
or t.property_type == PropertyType.BINARY
or # mapped to std::string
t.property_type == PropertyType.CHOICES or
t.property_type == PropertyType.ENUM or
t.property_type == PropertyType.OBJECT or
t.property_type == PropertyType.FUNCTION or
t.property_type == PropertyType.REF or t.property_type
== PropertyType.STRING):
# TODO(miket): It would be nice to initialize CHOICES and ENUM, but we
# don't presently have the semantics to indicate which one of a set
# should be the default.
continue
else:
raise TypeError(t)
if items:
s = ': %s' % (', '.join(items))
else:
s = ''
s = s + ' {}'
return Code().Append(s)
def _GenerateEnumToString(self, cpp_namespace, type_):
"""Generates ToString() which gets the string representation of an enum.
"""
c = Code()
classname = cpp_util.Classname(schema_util.StripNamespace(type_.name))
if cpp_namespace is not None:
c.Append('// static')
maybe_namespace = '' if cpp_namespace is None else '%s::' % cpp_namespace
c.Sblock('std::string %sToString(%s enum_param) {' %
(maybe_namespace, classname))
c.Sblock('switch (enum_param) {')
for enum_value in self._type_helper.FollowRef(type_).enum_values:
(c.Append(
'case %s: ' %
self._type_helper.GetEnumValue(type_, enum_value)).Append(
' return "%s";' % enum_value.name))
(c.Append(
'case %s:' %
self._type_helper.GetEnumNoneValue(type_)).Append(' return "";').
Eblock('}').Append('NOTREACHED();').Append('return "";').Eblock('}'))
return c
def _GenerateParamsCheck(self, function, var):
"""Generates a check for the correct number of arguments when creating
Params.
"""
c = Code()
num_required = 0
for param in function.params:
if not param.optional:
num_required += 1
if num_required == len(function.params):
c.Append('if (%(var)s.GetSize() != %(total)d)')
elif not num_required:
c.Append('if (%(var)s.GetSize() > %(total)d)')
else:
c.Append('if (%(var)s.GetSize() < %(required)d'
' || %(var)s.GetSize() > %(total)d)')
c.Append(' return scoped_ptr<Params>();')
c.Substitute({
'var': var,
'required': num_required,
'total': len(function.params),
})
return c
def Generate(self):
"""Generates a Code object for features.
"""
c = Code()
(c.Append(cpp_util.CHROMIUM_LICENSE).Append().Append(
cpp_util.GENERATED_FEATURE_MESSAGE % self._source_file).Append())
ifndef_name = cpp_util.GenerateIfndefName(self._source_file_filename,
self._class_name)
(c.Append('#ifndef %s' % ifndef_name).Append('#define %s' %
ifndef_name).Append())
(c.Append('#include <map>').Append(
'#include <string>').Append().Concat(
cpp_util.OpenNamespace(self._namespace)).Append())
(c.Append('class %s {' %
self._class_name).Append(' public:').Sblock().Concat(
self._GeneratePublicBody()).Eblock().Append(' private:').
Sblock().Concat(
self._GeneratePrivateBody()).Eblock('};').Append().Cblock(
cpp_util.CloseNamespace(self._namespace)))
(c.Append('#endif // %s' % ifndef_name).Append())
return c
def _GenerateFields(self, props):
"""Generates the field declarations when declaring a type.
"""
c = Code()
# Generate the enums needed for any fields with "choices"
for prop in props:
if prop.type_ == PropertyType.CHOICES:
enum_name = self._cpp_type_generator.GetChoicesEnumType(prop)
c.Append('%s %s_type;' % (enum_name, prop.unix_name))
c.Append()
for prop in self._cpp_type_generator.ExpandParams(props):
if prop.description:
c.Comment(prop.description)
(c.Append('%s %s;' % (
self._cpp_type_generator.GetCompiledType(prop, wrap_optional=True),
prop.unix_name))
.Append()
)
return c
def _GenerateCreateCallbackArguments(self, function, generate_to_json=False):
"""Generates functions for passing paramaters to a callback.
"""
c = Code()
params = function.params
c.Concat(self._GeneratePropertyStructures(params))
param_lists = self._cpp_type_generator.GetAllPossibleParameterLists(params)
for param_list in param_lists:
declaration_list = []
for param in param_list:
if param.description:
c.Comment(param.description)
declaration_list.append('const %s' % cpp_util.GetParameterDeclaration(
param, self._cpp_type_generator.GetCompiledType(param)))
c.Append('scoped_ptr<base::ListValue> Create(%s);' %
', '.join(declaration_list))
if generate_to_json:
c.Append('std::string ToJson(%s);' % ', '.join(declaration_list))
return c
def _GenerateChoiceTypeToValue(self, cpp_namespace, type_):
"""Generates a function that serializes a choice-representing type
into a base::Value.
"""
c = Code()
c.Sblock('std::unique_ptr<base::Value> %s::ToValue() const {' %
cpp_namespace)
c.Append('std::unique_ptr<base::Value> result;')
for choice in type_.choices:
choice_var = 'as_%s' % choice.unix_name
# Enums cannot be wrapped with scoped_ptr, but the XXX_NONE enum value
# is equal to 0.
(c.Sblock('if (%s) {' % choice_var)
.Append('DCHECK(!result) << "Cannot set multiple choices for %s";' %
type_.unix_name).Cblock(self._CreateValueFromType(
'result = %s;', choice.name, choice, choice_var, True))
.Eblock('}'))
(c.Append('DCHECK(result) << "Must set at least one choice for %s";' %
type_.unix_name).Append('return result;').Eblock('}'))
return c
def _GenerateTypePopulateProperty(self, prop, src, dst):
"""Generate the code to populate a single property in a type.
src: DictionaryValue*
dst: Type*
"""
c = Code()
value_var = prop.unix_name + '_value'
c.Append('Value* %(value_var)s = NULL;')
if prop.optional:
(c.Sblock(
'if (%(src)s->GetWithoutPathExpansion("%(key)s", &%(value_var)s)) {'
).Concat(
self._GeneratePopulatePropertyFromValue(
prop, value_var, dst, 'false')).Eblock('}'))
else:
(c.Append(
'if (!%(src)s->GetWithoutPathExpansion("%(key)s", &%(value_var)s))'
).Append(' return false;').Concat(
self._GeneratePopulatePropertyFromValue(
prop, value_var, dst, 'false')))
c.Append()
c.Substitute({'value_var': value_var, 'key': prop.name, 'src': src})
return c
def _GenerateFunction(self, cpp_namespace, function):
"""Generates the definitions for function structs.
"""
c = Code()
# Params::Populate function
if function.params:
c.Concat(
self._GeneratePropertyFunctions(cpp_namespace + '::Params',
function.params))
(c.Append('%(cpp_namespace)s::Params::Params() {}').Append(
'%(cpp_namespace)s::Params::~Params() {}').Append().Concat(
self._GenerateFunctionParamsCreate(cpp_namespace,
function)).Append())
# Result::Create function
if function.callback:
c.Concat(
self._GenerateFunctionResultCreate(cpp_namespace, function))
c.Substitute({'cpp_namespace': cpp_namespace})
return c
def _GenerateEnumFromString(self, cpp_namespace, type_):
"""Generates FromClassNameString() which gets an enum from its string
representation.
"""
c = Code()
classname = cpp_util.Classname(schema_util.StripNamespace(type_.name))
if cpp_namespace is not None:
c.Append('// static')
maybe_namespace = '' if cpp_namespace is None else '%s::' % cpp_namespace
c.Sblock('%s%s %sParse%s(const std::string& enum_string) {' %
(maybe_namespace, classname, maybe_namespace, classname))
for _, enum_value in enumerate(
self._type_helper.FollowRef(type_).enum_values):
# This is broken up into all ifs with no else ifs because we get
# "fatal error C1061: compiler limit : blocks nested too deeply"
# on Windows.
(c.Append('if (enum_string == "%s")' % enum_value.name).Append(
' return %s;' %
self._type_helper.GetEnumValue(type_, enum_value)))
(c.Append('return %s;' %
self._type_helper.GetEnumNoneValue(type_)).Eblock('}'))
return c
def __init__(self, win): Code.__init__(self, win) self.__line_to_addr = None self.__addr_to_line = None
def testAppend(self):
c = Code()
c.Append('line')
self.assertEquals('line', c.Render())
def _GenerateType(self, cpp_namespace, type_):
"""Generates the function definitions for a type.
"""
classname = cpp_util.Classname(schema_util.StripNamespace(type_.name))
c = Code()
if type_.functions:
# Wrap functions within types in the type's namespace.
(c.Append('namespace %s {' % classname)
.Append())
for function in type_.functions.values():
c.Cblock(self._GenerateFunction(function))
c.Append('} // namespace %s' % classname)
elif type_.property_type == PropertyType.ARRAY:
c.Cblock(self._GenerateType(cpp_namespace, type_.item_type))
elif type_.property_type in (PropertyType.CHOICES,
PropertyType.OBJECT):
if cpp_namespace is None:
classname_in_namespace = classname
else:
classname_in_namespace = '%s::%s' % (cpp_namespace, classname)
if type_.property_type == PropertyType.OBJECT:
c.Cblock(self._GeneratePropertyFunctions(classname_in_namespace,
type_.properties.values()))
else:
c.Cblock(self._GenerateTypes(classname_in_namespace, type_.choices))
(c.Append('%s::%s()' % (classname_in_namespace, classname))
.Cblock(self._GenerateInitializersAndBody(type_))
.Append('%s::~%s() {}' % (classname_in_namespace, classname))
.Append()
)
if type_.origin.from_json:
c.Cblock(self._GenerateTypePopulate(classname_in_namespace, type_))
if cpp_namespace is None: # only generate for top-level types
c.Cblock(self._GenerateTypeFromValue(classname_in_namespace, type_))
if type_.origin.from_client:
c.Cblock(self._GenerateTypeToValue(classname_in_namespace, type_))
elif type_.property_type == PropertyType.ENUM:
(c.Cblock(self._GenerateEnumToString(cpp_namespace, type_))
.Cblock(self._GenerateEnumFromString(cpp_namespace, type_))
)
return c
def _GenerateFunctionParamsCreate(self, function):
"""Generate function to create an instance of Params. The generated
function takes a base::ListValue of arguments.
E.g for function "Bar", generate Bar::Params::Create()
"""
c = Code()
(c.Append('// static')
.Sblock('scoped_ptr<Params> Params::Create(%s) {' % self._GenerateParams(
['const base::ListValue& args']))
)
if self._generate_error_messages:
c.Append('DCHECK(error);')
(c.Concat(self._GenerateParamsCheck(function, 'args'))
.Append('scoped_ptr<Params> params(new Params());')
)
for param in function.params:
c.Concat(self._InitializePropertyToDefault(param, 'params'))
for i, param in enumerate(function.params):
# Any failure will cause this function to return. If any argument is
# incorrect or missing, those following it are not processed. Note that
# for optional arguments, we allow missing arguments and proceed because
# there may be other arguments following it.
failure_value = 'scoped_ptr<Params>()'
c.Append()
value_var = param.unix_name + '_value'
(c.Append('const base::Value* %(value_var)s = NULL;')
.Append('if (args.Get(%(i)s, &%(value_var)s) &&')
.Sblock(' !%(value_var)s->IsType(base::Value::TYPE_NULL)) {')
.Concat(self._GeneratePopulatePropertyFromValue(
param, value_var, 'params', failure_value))
.Eblock('}')
)
if not param.optional:
(c.Sblock('else {')
.Concat(self._GenerateError('"\'%%(key)s\' is required"'))
.Append('return %s;' % failure_value)
.Eblock('}'))
c.Substitute({'value_var': value_var, 'i': i, 'key': param.name})
(c.Append()
.Append('return params.Pass();')
.Eblock('}')
.Append()
)
return c
if re.search('.*\.asm',in_file) == None:
print('incorrect file name!')
sys.exit(0)
#If user passed in option to allow extra functionality
if len(sys.argv) == 3:
temp_op=sys.argv[2]
if '-x' in temp_op:
extended_op=True
#Strips .asm of the end and adds .hack
temp_out=re.search('(.*)(\.asm)',in_file)
out_file+=temp_out.group(1)+'.hack'
par = Parser(in_file,extended_op)
code = Code()
symT = SymbolTable()
#------------------------------------------------------------------------------
# Main
#------------------------------------------------------------------------------
#Builds the symbol table
while par.hasMoreCommands():
par.advance()
cType = par.commandType()
#if the command type is a label
if re.search('L_COMMAND',cType) is not None:
temp_L = re.search('(.*)(;)(.*)',par.symbol())
symT.addEntry(temp_L.group(1),int(temp_L.group(3)),False)
def testSubstituteErrors(self):
# No unnamed placeholders allowed when substitute is run
c = Code()
c.Append('%s %s')
self.assertRaises(TypeError, c.Substitute, ('var1', 'one'))
c = Code()
c.Append('%s %(var1)s')
self.assertRaises(TypeError, c.Substitute, {'var1': 'one'})
c = Code()
c.Append('%s %(var1)s')
self.assertRaises(TypeError, c.Substitute, {'var1': 'one'})
c = Code()
c.Append('%(var1)s')
self.assertRaises(KeyError, c.Substitute, {'clearlynotvar1': 'one'})
class Mysha:
def __init__(self, x, y, left, kind):
global game
game = Base.game
self.x = x
self.y = y
self.jx = 0
self.jy = 0
self.frame = 0
self.left = left
self.jump = False
self.ground = True
self.dead = False
self.rest = 0
self.fy = 0
self.coins = 0
self.code = None
self.kind = kind
self.executing = 0
self.command = None
self.command_x = 0
def move(self):
self.frame += 1
if self.frame & 3 == 0:
dx = -4 if self.left else +4
if self.check(-20 if self.left else 20, 0) not in wall:
self.x += dx
def turn(self):
self.left = not self.left
tx = self.x // 32
dx = self.x - tx * 32
if self.check(-dx - 1, 0) in wall:
self.x = tx * 32 + 20
elif self.check(32 - dx, 0) == wall:
self.x = tx * 32 + 12
def input(self, k):
if self.jy == 0: self.jx = 0
if k.right:
if not self.rest:
if self.left: self.turn()
else: self.move()
if self.jy == 0: self.jx = 3
if k.left:
if not self.rest:
if self.left: self.move()
else: self.turn()
if self.jy == 0: self.jx = -3
if k.up and not self.jump:
if not self.rest and self.check(0, 1) in wall:
if self.jx:
self.jy = 8
else:
self.jy = 12
def tick(self):
if self.rest:
self.rest -= 1
if self.jy > 0:
if self.check(-32 if self.left else 32, 0) not in wall:
self.x += self.jx
self.y -= self.jy
self.jy -= 1
self.jump = True
self.ground = False
if self.jy == 0:
gravity = 1 + self.fy
for i in range(gravity):
ty = self.y // 32
if self.y - ty * 32 != 31:
self.y += 1
if self.fy < 8:
self.fy += 1
else:
if self.check(0, 1) not in wall:
if self.ground:
tx = self.x // 32
if self.left:
self.x -= 8
else:
self.x += 8
self.ground = False
self.y += 1
else:
grab = False
if self.left:
if self.check(-32, 8) in wall and\
self.check(-32, 0) not in wall:
grab = True
else:
if self.check(32, 8) in wall and\
self.check(32, 0) not in wall:
grab = True
if grab:
self.y = ty * 32 + 31
tx = self.x // 32
if self.left:
self.x = tx * 32 - 1
else:
self.x = tx * 32 + 32
else:
self.y += 1
else:
if self.fy > 0:
ty = self.y // 32
if self.y - ty * 32 < 16:
self.y = ty * 32 - 1
self.fy = 0
self.ground = True
if self.jump:
self.jump = False
self.rest = 15
c = self.check(0, 0)
if c == "X":
self.dead = True
al_play_sample(game.ohnosound, 1, 0, 1,
ALLEGRO_PLAYMODE_ONCE, byref(ALLEGRO_SAMPLE_ID()))
elif c == "*":
self.coins += 1
self.put(0, 0, " ")
al_play_sample(game.yaysound, 1, 0, 1,
ALLEGRO_PLAYMODE_ONCE, byref(ALLEGRO_SAMPLE_ID()))
elif c == "W":
game.coins_collected += self.coins
if self.coins > 0:
al_play_sample(game.welldone, 1, 0, 1,
ALLEGRO_PLAYMODE_ONCE, byref(ALLEGRO_SAMPLE_ID()))
self.coins = 0
def check(self, x, y):
tx = (self.x + x) // 32
ty = (self.y + y) // 32
return game.level[1 + ty][1 + tx]
def put(self, x, y, c):
tx = (self.x + x) // 32
ty = (self.y + y) // 32
row = game.level[1 + ty]
game.level[1 + ty] = row[:1 + tx] + c + row[1 + tx + 1:]
def follow_commands(self, keys):
if not self.code:
self.code = Code()
self.code.code = game.code.code[:]
if (game.ticks - self.executing > 2 and not self.command) or\
game.ticks - self.executing > 120:
self.command = self.code.execute(self)
if self.command in game.sounds:
al_play_sample(game.sounds[self.command], 1, 0, 1,
ALLEGRO_PLAYMODE_ONCE, byref(ALLEGRO_SAMPLE_ID()))
self.executing = game.ticks
if self.command == "move":
self.command_x = self.x
elif self.command == "hop":
self.command_x = self.x
elif self.command == "jump":
keys.up = 1
elif self.command == "turn":
self.left = not self.left
if self.command == "move":
if self.command_x // 32 != self.x // 32:
self.command = ""
if self.left:
keys.left = 1
else:
keys.right = 1
elif self.command == "hop":
tx = self.x // 32
if self.left: keys.left = 1
else: keys.right = 1
if not self.left and self.x - tx * 32 >= 28:
keys.up = 1
self.command = "wait"
if self.left and self.x - tx * 32 <= 3:
keys.up = 1
self.command = "wait"
elif self.command == "wait":
tx = self.x // 32
if self.ground and not self.rest:
if not self.left and self.command_x // 32 + 2 == self.x // 32:
self.command = "center"
if self.left and self.command_x // 32 - 2 == self.x // 32:
self.command = "center"
elif self.command == "jump":
if game.ticks > self.executing and self.ground and not self.rest:
self.command = ""
elif self.command == "turn":
if game.ticks - self.executing > 30:
self.command = ""
elif self.command == "center":
if self.left: keys.left = 1
else: keys.right = 1
tx = self.x // 32
if self.x - tx * 32 >= 12 and self.x - tx * 32 <= 20:
self.command = ""
else:
self.command = ""
def follow_commands(self, keys):
if not self.code:
self.code = Code()
self.code.code = game.code.code[:]
if (game.ticks - self.executing > 2 and not self.command) or\
game.ticks - self.executing > 120:
self.command = self.code.execute(self)
if self.command in game.sounds:
al_play_sample(game.sounds[self.command], 1, 0, 1,
ALLEGRO_PLAYMODE_ONCE, byref(ALLEGRO_SAMPLE_ID()))
self.executing = game.ticks
if self.command == "move":
self.command_x = self.x
elif self.command == "hop":
self.command_x = self.x
elif self.command == "jump":
keys.up = 1
elif self.command == "turn":
self.left = not self.left
if self.command == "move":
if self.command_x // 32 != self.x // 32:
self.command = ""
if self.left:
keys.left = 1
else:
keys.right = 1
elif self.command == "hop":
tx = self.x // 32
if self.left: keys.left = 1
else: keys.right = 1
if not self.left and self.x - tx * 32 >= 28:
keys.up = 1
self.command = "wait"
if self.left and self.x - tx * 32 <= 3:
keys.up = 1
self.command = "wait"
elif self.command == "wait":
tx = self.x // 32
if self.ground and not self.rest:
if not self.left and self.command_x // 32 + 2 == self.x // 32:
self.command = "center"
if self.left and self.command_x // 32 - 2 == self.x // 32:
self.command = "center"
elif self.command == "jump":
if game.ticks > self.executing and self.ground and not self.rest:
self.command = ""
elif self.command == "turn":
if game.ticks - self.executing > 30:
self.command = ""
elif self.command == "center":
if self.left: keys.left = 1
else: keys.right = 1
tx = self.x // 32
if self.x - tx * 32 >= 12 and self.x - tx * 32 <= 20:
self.command = ""
else:
self.command = ""
class Assembler:
def __init__(self,input_file):
print("initializing assembler to work on " + input_file)
self.input_file = input_file
self.code = Code()
self.parser = Parser(self.input_file)
#to implement this, I am going to go with a straight
#prodcedural implementation. the above functions are the
#API that is probably needed for the other chapters.
#Anyway, the parser requires a file for input, and the
#advance and has_more_commands are just basic
#iterator functions
#The quickest way to solve this is just implement
#a counter when the file is initialized.
def symbol_less_assembly(self):
#letst iterate!
while(self.parser.has_more_commands()):
cmd = self.parser.get_current_command()
if(self.parser.commands.A_COMMAND==self.parser.command_type()):
print "A: " + self.parser.symbol()
#the magic symbol is from here: http://stackoverflow.com/questions/1002116/can-bin-be-overloaded-like-oct-and-hex-in-python-2-6
self.parser.output.write("0" + '{0:015b}'.format(int(self.parser.symbol()))+"\n")
elif(self.parser.commands.C_COMMAND==self.parser.command_type()):
print "C: d=" + str(self.parser.dest()) + " c=" + str(self.parser.comp()) + " j=" + str(self.parser.jump())
#code emission. should be set to the output_file in the end.
self.parser.output.write("111" + self.code.comp(self.parser.comp()) + self.code.dest(self.parser.dest()) + self.code.jump(self.parser.jump())+"\n")
elif(self.parser.commands.L_COMMAND==self.parser.command_type()):
print "L: " + self.parser.symbol()
self.parser.advance()
def two_pass_assembly(self):
symbol_table = SymbolTable()
rom_address = 0
print("starting first pass")
while(self.parser.has_more_commands()):
cmd = self.parser.get_current_command()
if(self.parser.commands.L_COMMAND==self.parser.command_type()):
print "L: " + self.parser.symbol()
symbol_table.add_entry(self.parser.symbol(),rom_address)
else:
rom_address += 1
self.parser.advance()
self.parser.reset()
#the second pass is the same as the first without the print statements,
#and without handling (Xxx) syntax
print("starting second pass")
while(self.parser.has_more_commands()):
cmd = self.parser.get_current_command()
if(self.parser.commands.A_COMMAND==self.parser.command_type()):
sym = self.parser.symbol()
if(sym.isdigit()):
val = sym
else:
if(symbol_table.contains(sym)):
val = symbol_table.get_address(sym)
else:
symbol_table.add_entry(sym, rom_address)
rom_address += 1
val = rom_address
self.parser.output.write("0" + '{0:015b}'.format(int(val))+"\n")
elif(self.parser.commands.C_COMMAND==self.parser.command_type()):
self.parser.output.write("111"
+ self.code.comp(self.parser.comp())
+ self.code.dest(self.parser.dest())
+ self.code.jump(self.parser.jump())
+"\n")
self.parser.advance()
def test_xhh_type(self):
assert Code.xhh_type('X7F') == '1111111'
assert Code.xhh_type('X1D') == '0011101'
def testComment(self):
long_comment = ('This comment is eighty nine characters in longness, '
'that is, to use another word, length')
c = Code()
c.Comment(long_comment)
self.assertEquals(
'// This comment is eighty nine characters '
'in longness, that is, to use another\n'
'// word, length', c.Render())
c = Code()
c.Sblock('sblock')
c.Comment(long_comment)
c.Eblock('eblock')
c.Comment(long_comment)
self.assertEquals(
'sblock\n'
' // This comment is eighty nine characters '
'in longness, that is, to use\n'
' // another word, length\n'
'eblock\n'
'// This comment is eighty nine characters in '
'longness, that is, to use another\n'
'// word, length', c.Render())
long_word = 'x' * 100
c = Code()
c.Comment(long_word)
self.assertEquals('// ' + 'x' * 77 + '\n' '// ' + 'x' * 23, c.Render())
def __init__(self,input_file):
print("initializing assembler to work on " + input_file)
self.input_file = input_file
self.code = Code()
self.parser = Parser(self.input_file)
def test_sum():
c = Code()
assert c.sum(1,2) == 3
def main():
filename = os.path.join(os.getcwd(), Util.getCommandLineArg(1))
first_parser = Parser(filename)
second_parser = Parser(filename)
symbol_table = SymbolTable()
hack_filename = filename.replace('asm', 'hack')
hack_file = open(hack_filename, 'w')
ann_filename = filename.replace('asm', 'ann')
ann_file = open(ann_filename, 'w')
rom_address = 0
ram_address = 16
assembly = ''
while first_parser.has_more_commands():
first_parser.advance()
if first_parser.command_type() is 'A_COMMAND' or first_parser.command_type() is 'C_COMMAND':
rom_address += 1
elif first_parser.command_type() is 'L_COMMAND':
symbol_table.add_entry(first_parser.symbol(), rom_address, 'LAB')
while second_parser.has_more_commands():
second_parser.advance()
machine_command = ''
if second_parser.command_type() is 'A_COMMAND':
if second_parser.symbol()[0].isdigit():
binary = second_parser.symbol()
else:
if symbol_table.contains(second_parser.symbol()):
binary = symbol_table.get_address(second_parser.symbol())
else:
binary = ram_address
symbol_table.add_entry(second_parser.symbol(), ram_address, 'VAR')
ram_address += 1
machine_command = '{0:016b}\n'.format(int(binary))
hack_file.write(machine_command)
elif second_parser.command_type() is 'C_COMMAND':
dest = Code.dest(second_parser.dest())
comp = Code.comp(second_parser.comp())
jump = Code.jump(second_parser.jump())
machine_command = '111{0}{1}{2}\n'.format(comp, dest, jump)
hack_file.write(machine_command)
assembly = second_parser.original_command().strip()
mc = machine_command.strip()
annotated_machine = '{} {} {} {}'.format(mc[0:4], mc[4:8], mc[8:12], mc[12:16])
symbolless_command = ''
if second_parser.command_type() is 'L_COMMAND':
symbolless_command = symbol_table.get_address(second_parser.symbol())
elif second_parser.command_type() is 'A_COMMAND' and not second_parser.symbol().isdigit():
symbolless_command = '@{}'.format(symbol_table.get_address(second_parser.symbol()))
else:
symbolless_command = second_parser.command
annotated_command = '{:<39} {} {:<11} {}\n'.format(assembly, '//' if second_parser.command_type() else '', symbolless_command, annotated_machine)
ann_file.write(annotated_command)
ann_file.write('\n// Symbol Table:\n')
for symbol, address in symbol_table.symbol_table.items():
ann_file.write('// {}: {:<30} -> {}\n'.format(address[1], symbol, address[0]))
hack_file.close()
ann_file.close()
line_address += 1
parser.seek_head()
var_address = 16
while parser.has_more_commands():
parser.advance()
if parser.command_type() == 'L_COMMAND':
continue
elif parser.command_type() == 'A_COMMAND':
symbol = parser.symbol()
if symbol.isdigit():
address = int(symbol)
elif symbol_table.contains(symbol):
address = symbol_table.get_address(symbol)
else:
address = var_address
symbol_table.add_entry(symbol, address)
var_address += 1
machine_code = address
elif parser.command_type() == 'C_COMMAND':
comp = Code.comp(parser.comp())
dest = Code.dest(parser.dest())
jump = Code.jump(parser.jump())
machine_code = 0b111 << 13 | comp << 6 | dest << 3 | jump
machine_code_str = "{0:016b}".format(machine_code)
hack_file.write(machine_code_str + '\n')
def test_comp_without_XHH_instructions(self):
assert Code.comp('D+1') == '0011111'
assert Code.comp('D&M') == '1000000'
def _GeneratePopulateVariableFromValue(self,
type_,
src_var,
dst_var,
failure_value,
is_ptr=False):
"""Generates code to populate a variable |dst_var| of type |type_| from a
Value* at |src_var|. The Value* is assumed to be non-NULL. In the generated
code, if |dst_var| fails to be populated then Populate will return
|failure_value|.
"""
c = Code()
underlying_type = self._type_helper.FollowRef(type_)
if underlying_type.property_type.is_fundamental:
if is_ptr:
(c.Append('%(cpp_type)s temp;')
.Sblock('if (!%s) {' % cpp_util.GetAsFundamentalValue(
self._type_helper.FollowRef(type_), src_var, '&temp'))
.Concat(self._GenerateError(
'"\'%%(key)s\': expected ' + '%s, got " + %s' % (
type_.name,
self._util_cc_helper.GetValueTypeString(
'%%(src_var)s', True)))))
c.Append('%(dst_var)s.reset();')
if not self._generate_error_messages:
c.Append('return %(failure_value)s;')
(c.Eblock('}')
.Append('else')
.Append(' %(dst_var)s.reset(new %(cpp_type)s(temp));')
)
else:
(c.Sblock('if (!%s) {' % cpp_util.GetAsFundamentalValue(
self._type_helper.FollowRef(type_),
src_var,
'&%s' % dst_var))
.Concat(self._GenerateError(
'"\'%%(key)s\': expected ' + '%s, got " + %s' % (
type_.name,
self._util_cc_helper.GetValueTypeString(
'%%(src_var)s', True))))
.Append('return %(failure_value)s;')
.Eblock('}')
)
elif underlying_type.property_type == PropertyType.OBJECT:
if is_ptr:
(c.Append('const base::DictionaryValue* dictionary = NULL;')
.Sblock('if (!%(src_var)s->GetAsDictionary(&dictionary)) {')
.Concat(self._GenerateError(
'"\'%%(key)s\': expected dictionary, got " + ' +
self._util_cc_helper.GetValueTypeString('%%(src_var)s', True))))
# If an optional property fails to populate, the population can still
# succeed with a warning. If no error messages are generated, this
# warning is not set and we fail out instead.
if not self._generate_error_messages:
c.Append('return %(failure_value)s;')
(c.Eblock('}')
.Sblock('else {')
.Append('scoped_ptr<%(cpp_type)s> temp(new %(cpp_type)s());')
.Append('if (!%%(cpp_type)s::Populate(%s)) {' % self._GenerateArgs(
('*dictionary', 'temp.get()')))
.Append(' return %(failure_value)s;')
)
(c.Append('}')
.Append('else')
.Append(' %(dst_var)s = temp.Pass();')
.Eblock('}')
)
else:
(c.Append('const base::DictionaryValue* dictionary = NULL;')
.Sblock('if (!%(src_var)s->GetAsDictionary(&dictionary)) {')
.Concat(self._GenerateError(
'"\'%%(key)s\': expected dictionary, got " + ' +
self._util_cc_helper.GetValueTypeString('%%(src_var)s', True)))
.Append('return %(failure_value)s;')
.Eblock('}')
.Append('if (!%%(cpp_type)s::Populate(%s)) {' % self._GenerateArgs(
('*dictionary', '&%(dst_var)s')))
.Append(' return %(failure_value)s;')
.Append('}')
)
elif underlying_type.property_type == PropertyType.FUNCTION:
if is_ptr:
c.Append('%(dst_var)s.reset(new base::DictionaryValue());')
elif underlying_type.property_type == PropertyType.ANY:
c.Append('%(dst_var)s.reset(%(src_var)s->DeepCopy());')
elif underlying_type.property_type == PropertyType.ARRAY:
# util_cc_helper deals with optional and required arrays
(c.Append('const base::ListValue* list = NULL;')
.Sblock('if (!%(src_var)s->GetAsList(&list)) {')
.Concat(self._GenerateError(
'"\'%%(key)s\': expected list, got " + ' +
self._util_cc_helper.GetValueTypeString('%%(src_var)s', True)))
)
if is_ptr and self._generate_error_messages:
c.Append('%(dst_var)s.reset();')
else:
c.Append('return %(failure_value)s;')
c.Eblock('}')
c.Sblock('else {')
item_type = self._type_helper.FollowRef(underlying_type.item_type)
if item_type.property_type == PropertyType.ENUM:
c.Concat(self._GenerateListValueToEnumArrayConversion(
item_type,
'list',
dst_var,
failure_value,
is_ptr=is_ptr))
else:
c.Sblock('if (!%s(%s)) {' % (
self._util_cc_helper.PopulateArrayFromListFunction(is_ptr),
self._GenerateArgs(('*list', '&%(dst_var)s'))))
c.Concat(self._GenerateError(
'"unable to populate array \'%%(parent_key)s\'"'))
if is_ptr and self._generate_error_messages:
c.Append('%(dst_var)s.reset();')
else:
c.Append('return %(failure_value)s;')
c.Eblock('}')
c.Eblock('}')
elif underlying_type.property_type == PropertyType.CHOICES:
if is_ptr:
(c.Append('scoped_ptr<%(cpp_type)s> temp(new %(cpp_type)s());')
.Append('if (!%%(cpp_type)s::Populate(%s))' % self._GenerateArgs(
('*%(src_var)s', 'temp.get()')))
.Append(' return %(failure_value)s;')
.Append('%(dst_var)s = temp.Pass();')
)
else:
(c.Append('if (!%%(cpp_type)s::Populate(%s))' % self._GenerateArgs(
('*%(src_var)s', '&%(dst_var)s')))
.Append(' return %(failure_value)s;'))
elif underlying_type.property_type == PropertyType.ENUM:
c.Concat(self._GenerateStringToEnumConversion(underlying_type,
src_var,
dst_var,
failure_value))
elif underlying_type.property_type == PropertyType.BINARY:
(c.Append('const base::BinaryValue* binary_value = NULL;')
.Sblock('if (!%(src_var)s->IsType(base::Value::TYPE_BINARY)) {')
.Concat(self._GenerateError(
'"\'%%(key)s\': expected binary, got " + ' +
self._util_cc_helper.GetValueTypeString('%%(src_var)s', True)))
)
if not self._generate_error_messages:
c.Append('return %(failure_value)s;')
(c.Eblock('}')
.Sblock('else {')
.Append(' binary_value =')
.Append(' static_cast<const base::BinaryValue*>(%(src_var)s);')
)
if is_ptr:
(c.Append('%(dst_var)s.reset(new std::vector<char>(')
.Append(' binary_value->GetBuffer(),')
.Append(' binary_value->GetBuffer() + binary_value->GetSize()));')
)
else:
(c.Append('%(dst_var)s.assign(')
.Append(' binary_value->GetBuffer(),')
.Append(' binary_value->GetBuffer() + binary_value->GetSize());')
)
c.Eblock('}')
else:
raise NotImplementedError(type_)
if c.IsEmpty():
return c
return Code().Sblock('{').Concat(c.Substitute({
'cpp_type': self._type_helper.GetCppType(type_),
'src_var': src_var,
'dst_var': dst_var,
'failure_value': failure_value,
'key': type_.name,
'parent_key': type_.parent.name,
})).Eblock('}')
def produceCode(data):
code = Code(data["name"])
music = len(data["notes"]) > 1
if music:
code.defineVariable("music_index")
code.defineVariable("note_index")
code.includeDependency("macro/sound.asm")
code.includeDependency("data/constants.inc")
code.includeDependency("data/sound_constants.inc")
functionName = "Play%s" % data["name"]
code.exportFunction(functionName)
code.append("%s:" % functionName)
code.indent()
if music:
checkNoteIndex(code)
code.append("LDA #%00000011; square 1 and 2")
code.append("STA APU_CTRL")
code.append("; DClm vol")
code.append("LDA #%10000111 ; duty cycle 50%, deaktivert lengdeteller")
code.append(" ; deaktivert envelope - generator, fullt volum (15)")
code.append("STA $4000")
code.append("STA $4004")
if not music:
for tone in data["notes"][0]["tones"]:
code.append("SET_SQUARE_NOTE %s, %s, %s" % (tone[0], tone[1], tone[2]))
else:
code.append("LDA music_index")
i = 0
code.indent()
for note in data["notes"]:
code.append("SKIP_IF_NOT %d" % i)
for tone in note["tones"]:
code.append("SET_SQUARE_NOTE %s, %s, %s" % (tone[0], tone[1], tone[2]))
code.append("LDA #%s" % note["length"])
code.append("JMP @end_set_note")
code.append(":", -1)
i += 1
code.unindent()
code.append("LDA #0")
code.append("STA music_index")
code.append("RTS")
code.append(setNoteIndex)
code.append("RTS")
return str(code)
def __init__(self, number):
self.length = number
self._secret_code = Code.generate_secret_code(self.length)
self.game_over = False
def test_comp_with_XHH_instructions(self):
# print '\n{} == \n{}'.format(Code.comp('D&A'), Code.comp('X00'))
assert Code.comp('X7F') == '1111111'
assert Code.comp('X3A') == '0111010'
assert Code.comp('D&A') == Code.comp('X00')
def testConcat(self):
b = Code()
(b.Sblock('2').Append('2').Eblock('2'))
c = Code()
(c.Sblock('1').Concat(b).Append('1').Eblock('1'))
self.assertEquals('1\n'
' 2\n'
' 2\n'
' 2\n'
' 1\n'
'1', c.Render())
d = Code()
a = Code()
a.Concat(d)
self.assertEquals('', a.Render())
a.Concat(c)
self.assertEquals('1\n'
' 2\n'
' 2\n'
' 2\n'
' 1\n'
'1', a.Render())
for i in range(len(codecool_bp.mentors)):
print(' ', codecool_bp.mentors[i].full_name)
input()
print('\nStudents:')
for i in range(len(codecool_bp.students)):
print(' ', codecool_bp.students[i].full_name)
input()
print("\nMentors arrive at school. They welcome students with a cheery smile\n")
input()
codecool_bp.mentors[1].check_energy_level(codecool_bp.students)
input()
codecool_bp.mentors[0].check_mood(codecool_bp.students)
input()
codecool_bp.students[3].use_EKI(codecool_bp.EKI_list[7])
input()
code = Code(215, "Fakkin' Hard Shit")
code.get_worked_on(codecool_bp.students[1])
input()
codecool_bp.students[3].use_EKI(codecool_bp.EKI_list[10])
input()
creepy = Management("Creepy", "Guy", 0, "male", 0, True)
creepy.creeping(codecool_bp.mentors, codecool_bp.students)
input()
coffeemachine = CoffeeMachine(70, 0, True, True)
coffeemachine.make_coffee()
input()
coffeemachine.get_filled_water()
input()
coffeemachine.make_coffee()
boda = Management("Boda", "Józsi", 0, "male", 0, True)
boda.change_life(codecool_bp.mentors, codecool_bp.students)
def testIsEmpty(self):
c = Code()
self.assertTrue(c.IsEmpty())
c.Append('asdf')
self.assertFalse(c.IsEmpty())
def __init__(self, win): Code.__init__(self, win)
def Write(self):
"""Writes the output."""
header_file = self._out_base_filename + '.h'
cc_file = self._out_base_filename + '.cc'
include_file_root = self._out_root
GEN_DIR_PREFIX = 'gen/'
if include_file_root.startswith(GEN_DIR_PREFIX):
include_file_root = include_file_root[len(GEN_DIR_PREFIX):]
header_file_path = '%s/%s' % (include_file_root, header_file)
cc_file_path = '%s/%s' % (include_file_root, cc_file)
substitutions = ({
'header_file_path':
header_file_path,
'header_guard':
(header_file_path.replace('/', '_').replace('.', '_').upper()),
'method_name':
self._method_name,
'source_files':
str(self._source_files),
'year':
str(datetime.now().year)
})
if not os.path.exists(self._out_root):
os.makedirs(self._out_root)
# Write the .h file.
with open(os.path.join(self._out_root, header_file), 'w') as f:
header_file = Code()
header_file.Append(HEADER_FILE_TEMPLATE)
header_file.Substitute(substitutions)
f.write(header_file.Render().strip())
# Write the .cc file.
with open(os.path.join(self._out_root, cc_file), 'w') as f:
cc_file = Code()
cc_file.Append(CC_FILE_BEGIN)
cc_file.Substitute(substitutions)
cc_file.Concat(self.Render())
cc_end = Code()
cc_end.Append(CC_FILE_END)
cc_end.Substitute(substitutions)
cc_file.Concat(cc_end)
f.write(cc_file.Render().strip())
def assemble(self):
#
# first pass - build the symbol table for labels
#
parser = Parser(self.source_filename)
symbol_table = SymbolTable()
# the current instruction
instruction = 0
# parse each command
while parser.hasMoreCommands():
# advance to the next command
parser.advance()
# parse the command type and look for symbols
command_type = parser.commandType()
if command_type == "L":
# look for an instruction label symbol
symbol = parser.symbol()
if symbol not in symbol_table:
symbol_table.addEntry(symbol, instruction)
else:
# increment the instruction count if this was not a label
if command_type != "L":
instruction += 1
#
# second pass - build the symbol table for variables
#
parser = Parser(self.source_filename)
# the memory location for the next variable
variable_address = 16
# parse each command
while parser.hasMoreCommands():
# advance to the next command
parser.advance()
# parse the command type and look for symbols
command_type = parser.commandType()
if command_type == "A":
# look for a variable value symbol
symbol = parser.symbol()
if symbol[0] not in map(str, range(0, 10)):
# the symbol is not a number; that is, it is actually a symbol
if symbol not in symbol_table:
symbol_table.addEntry(symbol, variable_address)
variable_address += 1
#
# third pass - generate assembly
#
parser = Parser(self.source_filename)
code = Code()
# parse all commands
while parser.hasMoreCommands():
# advance to the next command
parser.advance()
command_type = parser.commandType()
if command_type == "A":
# a command
symbol = parser.symbol()
if symbol in symbol_table:
symbol = symbol_table.getAddress(symbol)
symbol_binary = code.decimalToBinary(symbol)
self.destination_file.write("0" + symbol_binary + "\n")
elif command_type == "C":
# c command
comp = code.comp(parser.comp())
dest = code.dest(parser.dest())
jump = code.jump(parser.jump())
self.destination_file.write("111" + comp + dest + jump + "\n")
elif command_type == "L":
# label - do nothing in this stage
pass
else:
# unknown command
raise Exception("ERROR: Unknown command type encountered")
# close the output file
self.destination_file.close()