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PEP8

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This commit is contained in:
Sebastien Bourdeauducq 2014-09-05 12:03:22 +08:00
parent 7e9df82e37
commit 4915b4b5aa
43 changed files with 3179 additions and 2915 deletions
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137
artiq/compiler/fold_constants.py
View File

@ -1,81 +1,86 @@
import ast, operator
import ast
import operator
from artiq.compiler.tools import *
from artiq.language.core import int64, round64
_ast_unops = {
ast.Invert: operator.inv,
ast.Not: operator.not_,
ast.UAdd: operator.pos,
ast.USub: operator.neg
ast.Invert: operator.inv,
ast.Not: operator.not_,
ast.UAdd: operator.pos,
ast.USub: operator.neg
}
_ast_binops = {
ast.Add: operator.add,
ast.Sub: operator.sub,
ast.Mult: operator.mul,
ast.Div: operator.truediv,
ast.FloorDiv: operator.floordiv,
ast.Mod: operator.mod,
ast.Pow: operator.pow,
ast.LShift: operator.lshift,
ast.RShift: operator.rshift,
ast.BitOr: operator.or_,
ast.BitXor: operator.xor,
ast.BitAnd: operator.and_
ast.Add: operator.add,
ast.Sub: operator.sub,
ast.Mult: operator.mul,
ast.Div: operator.truediv,
ast.FloorDiv: operator.floordiv,
ast.Mod: operator.mod,
ast.Pow: operator.pow,
ast.LShift: operator.lshift,
ast.RShift: operator.rshift,
ast.BitOr: operator.or_,
ast.BitXor: operator.xor,
ast.BitAnd: operator.and_
}
class _ConstantFolder(ast.NodeTransformer):
def visit_UnaryOp(self, node):
self.generic_visit(node)
try:
operand = eval_constant(node.operand)
except NotConstant:
return node
try:
op = _ast_unops[type(node.op)]
except KeyError:
return node
try:
result = value_to_ast(op(operand))
except:
return node
return ast.copy_location(result, node)
def visit_UnaryOp(self, node):
self.generic_visit(node)
try:
operand = eval_constant(node.operand)
except NotConstant:
return node
try:
op = _ast_unops[type(node.op)]
except KeyError:
return node
try:
result = value_to_ast(op(operand))
except:
return node
return ast.copy_location(result, node)
def visit_BinOp(self, node):
self.generic_visit(node)
try:
left, right = eval_constant(node.left), eval_constant(node.right)
except NotConstant:
return node
try:
op = _ast_binops[type(node.op)]
except KeyError:
return node
try:
result = value_to_ast(op(left, right))
except:
return node
return ast.copy_location(result, node)
def visit_BinOp(self, node):
self.generic_visit(node)
try:
left, right = eval_constant(node.left), eval_constant(node.right)
except NotConstant:
return node
try:
op = _ast_binops[type(node.op)]
except KeyError:
return node
try:
result = value_to_ast(op(left, right))
except:
return node
return ast.copy_location(result, node)
def visit_Call(self, node):
self.generic_visit(node)
fn = node.func.id
constant_ops = {
"int": int,
"int64": int64,
"round": round,
"round64": round64
}
if fn in constant_ops:
try:
arg = eval_constant(node.args[0])
except NotConstant:
return node
result = value_to_ast(constant_ops[fn](arg))
return ast.copy_location(result, node)
else:
return node
def visit_Call(self, node):
self.generic_visit(node)
fn = node.func.id
constant_ops = {
"int": int,
"int64": int64,
"round": round,
"round64": round64
}
if fn in constant_ops:
try:
arg = eval_constant(node.args[0])
except NotConstant:
return node
result = value_to_ast(constant_ops[fn](arg))
return ast.copy_location(result, node)
else:
return node
def fold_constants(node):
_ConstantFolder().visit(node)
_ConstantFolder().visit(node)

392
artiq/compiler/inline.py
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@ -1,229 +1,253 @@
from collections import namedtuple, defaultdict
from fractions import Fraction
import inspect, textwrap, ast
import inspect
import textwrap
import ast
from artiq.compiler.tools import eval_ast, value_to_ast
from artiq.language import core as core_language
from artiq.language import units
_UserVariable = namedtuple("_UserVariable", "name")
def _is_in_attr_list(obj, attr, al):
if not hasattr(obj, al):
return False
return attr in getattr(obj, al).split()
if not hasattr(obj, al):
return False
return attr in getattr(obj, al).split()
class _ReferenceManager:
def __init__(self):
# (id(obj), funcname, local) -> _UserVariable(name) / ast / constant_object
# local is None for kernel attributes
self.to_inlined = dict()
# inlined_name -> use_count
self.use_count = dict()
self.rpc_map = defaultdict(lambda: len(self.rpc_map))
self.kernel_attr_init = []
def __init__(self):
# (id(obj), funcname, local)
# -> _UserVariable(name) / ast / constant_object
# local is None for kernel attributes
self.to_inlined = dict()
# inlined_name -> use_count
self.use_count = dict()
self.rpc_map = defaultdict(lambda: len(self.rpc_map))
self.kernel_attr_init = []
# reserved names
for kg in core_language.kernel_globals:
self.use_count[kg] = 1
for name in "int", "round", "int64", "round64", \
"range", "Fraction", "Quantity", \
"s_unit", "Hz_unit", "microcycle_unit":
self.use_count[name] = 1
# reserved names
for kg in core_language.kernel_globals:
self.use_count[kg] = 1
for name in ("int", "round", "int64", "round64",
"range", "Fraction", "Quantity",
"s_unit", "Hz_unit", "microcycle_unit"):
self.use_count[name] = 1
def new_name(self, base_name):
if base_name[-1].isdigit():
base_name += "_"
if base_name in self.use_count:
r = base_name + str(self.use_count[base_name])
self.use_count[base_name] += 1
return r
else:
self.use_count[base_name] = 1
return base_name
def new_name(self, base_name):
if base_name[-1].isdigit():
base_name += "_"
if base_name in self.use_count:
r = base_name + str(self.use_count[base_name])
self.use_count[base_name] += 1
return r
else:
self.use_count[base_name] = 1
return base_name
def get(self, obj, funcname, ref):
store = isinstance(ref.ctx, ast.Store)
def get(self, obj, funcname, ref):
store = isinstance(ref.ctx, ast.Store)
if isinstance(ref, ast.Name):
key = (id(obj), funcname, ref.id)
try:
return self.to_inlined[key]
except KeyError:
if store:
ival = _UserVariable(self.new_name(ref.id))
self.to_inlined[key] = ival
return ival
if isinstance(ref, ast.Name):
key = (id(obj), funcname, ref.id)
try:
return self.to_inlined[key]
except KeyError:
if store:
ival = _UserVariable(self.new_name(ref.id))
self.to_inlined[key] = ival
return ival
if isinstance(ref, ast.Attribute) and isinstance(ref.value, ast.Name):
try:
value = self.to_inlined[(id(obj), funcname, ref.value.id)]
except KeyError:
pass
else:
if _is_in_attr_list(value, ref.attr, "kernel_attr_ro"):
if store:
raise TypeError("Attempted to assign to read-only kernel attribute")
return getattr(value, ref.attr)
if _is_in_attr_list(value, ref.attr, "kernel_attr"):
key = (id(value), ref.attr, None)
try:
ival = self.to_inlined[key]
assert(isinstance(ival, _UserVariable))
except KeyError:
iname = self.new_name(ref.attr)
ival = _UserVariable(iname)
self.to_inlined[key] = ival
a = value_to_ast(getattr(value, ref.attr))
if a is None:
raise NotImplementedError("Cannot represent initial value of kernel attribute")
self.kernel_attr_init.append(ast.Assign(
[ast.Name(iname, ast.Store())], a))
return ival
if isinstance(ref, ast.Attribute) and isinstance(ref.value, ast.Name):
try:
value = self.to_inlined[(id(obj), funcname, ref.value.id)]
except KeyError:
pass
else:
if _is_in_attr_list(value, ref.attr, "kernel_attr_ro"):
if store:
raise TypeError(
"Attempted to assign to read-only"
" kernel attribute")
return getattr(value, ref.attr)
if _is_in_attr_list(value, ref.attr, "kernel_attr"):
key = (id(value), ref.attr, None)
try:
ival = self.to_inlined[key]
assert(isinstance(ival, _UserVariable))
except KeyError:
iname = self.new_name(ref.attr)
ival = _UserVariable(iname)
self.to_inlined[key] = ival
a = value_to_ast(getattr(value, ref.attr))
if a is None:
raise NotImplementedError(
"Cannot represent initial value"
" of kernel attribute")
self.kernel_attr_init.append(ast.Assign(
[ast.Name(iname, ast.Store())], a))
return ival
if not store:
evd = self.get_constants(obj, funcname)
evd.update(inspect.getmodule(obj).__dict__)
return eval_ast(ref, evd)
else:
raise KeyError
if not store:
evd = self.get_constants(obj, funcname)
evd.update(inspect.getmodule(obj).__dict__)
return eval_ast(ref, evd)
else:
raise KeyError
def set(self, obj, funcname, name, value):
self.to_inlined[(id(obj), funcname, name)] = value
def set(self, obj, funcname, name, value):
self.to_inlined[(id(obj), funcname, name)] = value
def get_constants(self, r_obj, r_funcname):
return {
local: v for (objid, funcname, local), v
in self.to_inlined.items()
if objid == id(r_obj)
and funcname == r_funcname
and not isinstance(v, (_UserVariable, ast.AST))}
def get_constants(self, r_obj, r_funcname):
return {local: v for (objid, funcname, local), v
in self.to_inlined.items()
if objid == id(r_obj)
and funcname == r_funcname
and not isinstance(v, (_UserVariable, ast.AST))}
_embeddable_calls = {
core_language.delay, core_language.at, core_language.now,
core_language.syscall,
range, int, round, core_language.int64, core_language.round64,
Fraction, units.Quantity
core_language.delay, core_language.at, core_language.now,
core_language.syscall,
range, int, round, core_language.int64, core_language.round64,
Fraction, units.Quantity
}
class _ReferenceReplacer(ast.NodeTransformer):
def __init__(self, core, rm, obj, funcname):
self.core = core
self.rm = rm
self.obj = obj
self.funcname = funcname
def __init__(self, core, rm, obj, funcname):
self.core = core
self.rm = rm
self.obj = obj
self.funcname = funcname
def visit_ref(self, node):
store = isinstance(node.ctx, ast.Store)
ival = self.rm.get(self.obj, self.funcname, node)
if isinstance(ival, _UserVariable):
newnode = ast.Name(ival.name, node.ctx)
elif isinstance(ival, ast.AST):
assert(not store)
newnode = ival
else:
if store:
raise NotImplementedError("Cannot turn object into user variable")
else:
newnode = value_to_ast(ival)
if newnode is None:
raise NotImplementedError("Cannot represent inlined value")
return ast.copy_location(newnode, node)
def visit_ref(self, node):
store = isinstance(node.ctx, ast.Store)
ival = self.rm.get(self.obj, self.funcname, node)
if isinstance(ival, _UserVariable):
newnode = ast.Name(ival.name, node.ctx)
elif isinstance(ival, ast.AST):
assert(not store)
newnode = ival
else:
if store:
raise NotImplementedError(
"Cannot turn object into user variable")
else:
newnode = value_to_ast(ival)
if newnode is None:
raise NotImplementedError(
"Cannot represent inlined value")
return ast.copy_location(newnode, node)
visit_Name = visit_ref
visit_Attribute = visit_ref
visit_Subscript = visit_ref
visit_Name = visit_ref
visit_Attribute = visit_ref
visit_Subscript = visit_ref
def visit_Call(self, node):
func = self.rm.get(self.obj, self.funcname, node.func)
new_args = [self.visit(arg) for arg in node.args]
def visit_Call(self, node):
func = self.rm.get(self.obj, self.funcname, node.func)
new_args = [self.visit(arg) for arg in node.args]
if func in _embeddable_calls:
new_func = ast.Name(func.__name__, ast.Load())
return ast.copy_location(
ast.Call(func=new_func, args=new_args,
keywords=[], starargs=None, kwargs=None),
node)
elif hasattr(func, "k_function_info") and getattr(func.__self__, func.k_function_info.core_name) is self.core:
args = [func.__self__] + new_args
inlined, _ = inline(self.core, func.k_function_info.k_function, args, dict(), self.rm)
return inlined.body
else:
args = [ast.Str("rpc"), value_to_ast(self.rm.rpc_map[func])]
args += new_args
return ast.copy_location(
ast.Call(func=ast.Name("syscall", ast.Load()),
args=args, keywords=[], starargs=None, kwargs=None),
node)
if func in _embeddable_calls:
new_func = ast.Name(func.__name__, ast.Load())
return ast.copy_location(
ast.Call(func=new_func, args=new_args,
keywords=[], starargs=None, kwargs=None),
node)
elif (hasattr(func, "k_function_info")
and getattr(func.__self__, func.k_function_info.core_name)
is self.core):
args = [func.__self__] + new_args
inlined, _ = inline(self.core, func.k_function_info.k_function,
args, dict(), self.rm)
return inlined.body
else:
args = [ast.Str("rpc"), value_to_ast(self.rm.rpc_map[func])]
args += new_args
return ast.copy_location(
ast.Call(func=ast.Name("syscall", ast.Load()),
args=args, keywords=[], starargs=None, kwargs=None),
node)
def visit_Expr(self, node):
if isinstance(node.value, ast.Call):
r = self.visit_Call(node.value)
if isinstance(r, list):
return r
else:
node.value = r
return node
else:
self.generic_visit(node)
return node
def visit_Expr(self, node):
if isinstance(node.value, ast.Call):
r = self.visit_Call(node.value)
if isinstance(r, list):
return r
else:
node.value = r
return node
else:
self.generic_visit(node)
return node
def visit_FunctionDef(self, node):
node.args = ast.arguments(args=[], vararg=None, kwonlyargs=[],
kw_defaults=[], kwarg=None, defaults=[])
node.decorator_list = []
self.generic_visit(node)
return node
def visit_FunctionDef(self, node):
node.args = ast.arguments(args=[], vararg=None, kwonlyargs=[], kw_defaults=[], kwarg=None, defaults=[])
node.decorator_list = []
self.generic_visit(node)
return node
class _ListReadOnlyParams(ast.NodeVisitor):
def visit_FunctionDef(self, node):
if hasattr(self, "read_only_params"):
raise ValueError("More than one function definition")
self.read_only_params = {arg.arg for arg in node.args.args}
self.generic_visit(node)
def visit_FunctionDef(self, node):
if hasattr(self, "read_only_params"):
raise ValueError("More than one function definition")
self.read_only_params = {arg.arg for arg in node.args.args}
self.generic_visit(node)
def visit_Name(self, node):
if isinstance(node.ctx, ast.Store):
try:
self.read_only_params.remove(node.id)
except KeyError:
pass
def visit_Name(self, node):
if isinstance(node.ctx, ast.Store):
try:
self.read_only_params.remove(node.id)
except KeyError:
pass
def _list_read_only_params(funcdef):
lrp = _ListReadOnlyParams()
lrp.visit(funcdef)
return lrp.read_only_params
lrp = _ListReadOnlyParams()
lrp.visit(funcdef)
return lrp.read_only_params
def _initialize_function_params(funcdef, k_args, k_kwargs, rm):
obj = k_args[0]
funcname = funcdef.name
param_init = []
rop = _list_read_only_params(funcdef)
for arg_ast, arg_value in zip(funcdef.args.args, k_args):
arg_name = arg_ast.arg
if arg_name in rop:
rm.set(obj, funcname, arg_name, arg_value)
else:
target = rm.get(obj, funcname, ast.Name(arg_name, ast.Store()))
value = value_to_ast(arg_value)
param_init.append(ast.Assign(targets=[target], value=value))
return param_init
obj = k_args[0]
funcname = funcdef.name
param_init = []
rop = _list_read_only_params(funcdef)
for arg_ast, arg_value in zip(funcdef.args.args, k_args):
arg_name = arg_ast.arg
if arg_name in rop:
rm.set(obj, funcname, arg_name, arg_value)
else:
target = rm.get(obj, funcname, ast.Name(arg_name, ast.Store()))
value = value_to_ast(arg_value)
param_init.append(ast.Assign(targets=[target], value=value))
return param_init
def inline(core, k_function, k_args, k_kwargs, rm=None):
init_kernel_attr = rm is None
if rm is None:
rm = _ReferenceManager()
init_kernel_attr = rm is None
if rm is None:
rm = _ReferenceManager()
funcdef = ast.parse(textwrap.dedent(inspect.getsource(k_function))).body[0]
funcdef = ast.parse(textwrap.dedent(inspect.getsource(k_function))).body[0]
param_init = _initialize_function_params(funcdef, k_args, k_kwargs, rm)
param_init = _initialize_function_params(funcdef, k_args, k_kwargs, rm)
obj = k_args[0]
funcname = funcdef.name
rr = _ReferenceReplacer(core, rm, obj, funcname)
rr.visit(funcdef)
obj = k_args[0]
funcname = funcdef.name
rr = _ReferenceReplacer(core, rm, obj, funcname)
rr.visit(funcdef)
funcdef.body[0:0] = param_init
if init_kernel_attr:
funcdef.body[0:0] = rm.kernel_attr_init
funcdef.body[0:0] = param_init
if init_kernel_attr:
funcdef.body[0:0] = rm.kernel_attr_init
r_rpc_map = dict((rpc_num, rpc_fun) for rpc_fun, rpc_num in rm.rpc_map.items())
return funcdef, r_rpc_map
r_rpc_map = dict((rpc_num, rpc_fun)
for rpc_fun, rpc_num in rm.rpc_map.items())
return funcdef, r_rpc_map

184
artiq/compiler/interleave.py
View File

@ -1,105 +1,113 @@
import ast, types
import ast
import types
from artiq.compiler.tools import *
# -1 statement duration could not be pre-determined
# 0 statement has no effect on timeline
# >0 statement is a static delay that advances the timeline
# by the given amount (in microcycles)
def _get_duration(stmt):
if isinstance(stmt, (ast.Expr, ast.Assign)):
return _get_duration(stmt.value)
elif isinstance(stmt, ast.If):
if all(_get_duration(s) == 0 for s in stmt.body) and all(_get_duration(s) == 0 for s in stmt.orelse):
return 0
else:
return -1
elif isinstance(stmt, ast.Call) and isinstance(stmt.func, ast.Name):
name = stmt.func.id
if name == "delay":
try:
da = eval_constant(stmt.args[0])
except NotConstant:
da = -1
return da
else:
return 0
else:
return 0
if isinstance(stmt, (ast.Expr, ast.Assign)):
return _get_duration(stmt.value)
elif isinstance(stmt, ast.If):
if (all(_get_duration(s) == 0 for s in stmt.body)
and all(_get_duration(s) == 0 for s in stmt.orelse)):
return 0
else:
return -1
elif isinstance(stmt, ast.Call) and isinstance(stmt.func, ast.Name):
name = stmt.func.id
if name == "delay":
try:
da = eval_constant(stmt.args[0])
except NotConstant:
da = -1
return da
else:
return 0
else:
return 0
def _interleave_timelines(timelines):
r = []
r = []
current_stmts = []
for stmts in timelines:
it = iter(stmts)
try:
stmt = next(it)
except StopIteration:
pass
else:
current_stmts.append(types.SimpleNamespace(delay=_get_duration(stmt), stmt=stmt, it=it))
current_stmts = []
for stmts in timelines:
it = iter(stmts)
try:
stmt = next(it)
except StopIteration:
pass
else:
current_stmts.append(types.SimpleNamespace(
delay=_get_duration(stmt), stmt=stmt, it=it))
while current_stmts:
dt = min(stmt.delay for stmt in current_stmts)
if dt < 0:
# contains statement(s) with indeterminate duration
return None
if dt > 0:
# advance timeline by dt
for stmt in current_stmts:
stmt.delay -= dt
if stmt.delay == 0:
ref_stmt = stmt.stmt
delay_stmt = ast.copy_location(
ast.Expr(ast.Call(func=ast.Name("delay", ast.Load()),
args=[value_to_ast(dt)],
keywords=[], starargs=[], kwargs=[])),
ref_stmt)
r.append(delay_stmt)
else:
for stmt in current_stmts:
if stmt.delay == 0:
r.append(stmt.stmt)
# discard executed statements
exhausted_list = []
for stmt_i, stmt in enumerate(current_stmts):
if stmt.delay == 0:
try:
stmt.stmt = next(stmt.it)
except StopIteration:
exhausted_list.append(stmt_i)
else:
stmt.delay = _get_duration(stmt.stmt)
for offset, i in enumerate(exhausted_list):
current_stmts.pop(i-offset)
while current_stmts:
dt = min(stmt.delay for stmt in current_stmts)
if dt < 0:
# contains statement(s) with indeterminate duration
return None
if dt > 0:
# advance timeline by dt
for stmt in current_stmts:
stmt.delay -= dt
if stmt.delay == 0:
ref_stmt = stmt.stmt
delay_stmt = ast.copy_location(
ast.Expr(ast.Call(
func=ast.Name("delay", ast.Load()),
args=[value_to_ast(dt)],
keywords=[], starargs=[], kwargs=[])),
ref_stmt)
r.append(delay_stmt)
else:
for stmt in current_stmts:
if stmt.delay == 0:
r.append(stmt.stmt)
# discard executed statements
exhausted_list = []
for stmt_i, stmt in enumerate(current_stmts):
if stmt.delay == 0:
try:
stmt.stmt = next(stmt.it)
except StopIteration:
exhausted_list.append(stmt_i)
else:
stmt.delay = _get_duration(stmt.stmt)
for offset, i in enumerate(exhausted_list):
current_stmts.pop(i-offset)
return r
return r
def _interleave_stmts(stmts):
replacements = []
for stmt_i, stmt in enumerate(stmts):
if isinstance(stmt, (ast.For, ast.While, ast.If)):
_interleave_stmts(stmt.body)
_interleave_stmts(stmt.orelse)
elif isinstance(stmt, ast.With):
btype = stmt.items[0].context_expr.id
if btype == "sequential":
_interleave_stmts(stmt.body)
replacements.append((stmt_i, stmt.body))
elif btype == "parallel":
timelines = [[s] for s in stmt.body]
for timeline in timelines:
_interleave_stmts(timeline)
merged = _interleave_timelines(timelines)
if merged is not None:
replacements.append((stmt_i, merged))
else:
raise ValueError("Unknown block type: " + btype)
offset = 0
for location, new_stmts in replacements:
stmts[offset+location:offset+location+1] = new_stmts
offset += len(new_stmts) - 1
replacements = []
for stmt_i, stmt in enumerate(stmts):
if isinstance(stmt, (ast.For, ast.While, ast.If)):
_interleave_stmts(stmt.body)
_interleave_stmts(stmt.orelse)
elif isinstance(stmt, ast.With):
btype = stmt.items[0].context_expr.id
if btype == "sequential":
_interleave_stmts(stmt.body)
replacements.append((stmt_i, stmt.body))
elif btype == "parallel":
timelines = [[s] for s in stmt.body]
for timeline in timelines:
_interleave_stmts(timeline)
merged = _interleave_timelines(timelines)
if merged is not None:
replacements.append((stmt_i, merged))
else:
raise ValueError("Unknown block type: " + btype)
offset = 0
for location, new_stmts in replacements:
stmts[offset+location:offset+location+1] = new_stmts
offset += len(new_stmts) - 1
def interleave(funcdef):
_interleave_stmts(funcdef.body)
_interleave_stmts(funcdef.body)

48
artiq/compiler/ir.py
View File

@ -3,32 +3,34 @@ from llvm import passes as lp
from artiq.compiler import ir_infer_types, ir_ast_body, ir_values
def compile_function(module, env, funcdef):
function_type = lc.Type.function(lc.Type.void(), [])
function = module.add_function(function_type, funcdef.name)
bb = function.append_basic_block("entry")
builder = lc.Builder.new(bb)
ns = ir_infer_types.infer_types(env, funcdef)
for k, v in ns.items():
v.alloca(builder, k)
visitor = ir_ast_body.Visitor(env, ns, builder)
visitor.visit_statements(funcdef.body)
builder.ret_void()
def compile_function(module, env, funcdef):
function_type = lc.Type.function(lc.Type.void(), [])
function = module.add_function(function_type, funcdef.name)
bb = function.append_basic_block("entry")
builder = lc.Builder.new(bb)
ns = ir_infer_types.infer_types(env, funcdef)
for k, v in ns.items():
v.alloca(builder, k)
visitor = ir_ast_body.Visitor(env, ns, builder)
visitor.visit_statements(funcdef.body)
builder.ret_void()
def get_runtime_binary(env, funcdef):
module = lc.Module.new("main")
env.init_module(module)
ir_values.init_module(module)
module = lc.Module.new("main")
env.init_module(module)
ir_values.init_module(module)
compile_function(module, env, funcdef)
compile_function(module, env, funcdef)
pass_manager = lp.PassManager.new()
pass_manager.add(lp.PASS_MEM2REG)
pass_manager.add(lp.PASS_INSTCOMBINE)
pass_manager.add(lp.PASS_REASSOCIATE)
pass_manager.add(lp.PASS_GVN)
pass_manager.add(lp.PASS_SIMPLIFYCFG)
pass_manager.run(module)
pass_manager = lp.PassManager.new()
pass_manager.add(lp.PASS_MEM2REG)
pass_manager.add(lp.PASS_INSTCOMBINE)
pass_manager.add(lp.PASS_REASSOCIATE)
pass_manager.add(lp.PASS_GVN)
pass_manager.add(lp.PASS_SIMPLIFYCFG)
pass_manager.run(module)
return env.emit_object()
return env.emit_object()

338
artiq/compiler/ir_ast_body.py
View File

@ -2,187 +2,203 @@ import ast
from artiq.compiler import ir_values
class Visitor:
def __init__(self, env, ns, builder=None):
self.env = env
self.ns = ns
self.builder = builder
def __init__(self, env, ns, builder=None):
self.env = env
self.ns = ns
self.builder = builder
# builder can be None for visit_expression
def visit_expression(self, node):
method = "_visit_expr_" + node.__class__.__name__
try:
visitor = getattr(self, method)
except AttributeError:
raise NotImplementedError("Unsupported node '{}' in expression".format(node.__class__.__name__))
return visitor(node)
# builder can be None for visit_expression
def visit_expression(self, node):
method = "_visit_expr_" + node.__class__.__name__
try:
visitor = getattr(self, method)
except AttributeError:
raise NotImplementedError("Unsupported node '{}' in expression"
.format(node.__class__.__name__))
return visitor(node)
def _visit_expr_Name(self, node):
try:
r = self.ns[node.id]
except KeyError:
raise NameError("Name '{}' is not defined".format(node.id))
return r
def _visit_expr_Name(self, node):
try:
r = self.ns[node.id]
except KeyError:
raise NameError("Name '{}' is not defined".format(node.id))
return r
def _visit_expr_NameConstant(self, node):
v = node.value
if v is None:
r = ir_values.VNone()
elif isinstance(v, bool):
r = ir_values.VBool()
else:
raise NotImplementedError
if self.builder is not None:
r.set_const_value(self.builder, v)
return r
def _visit_expr_NameConstant(self, node):
v = node.value
if v is None:
r = ir_values.VNone()
elif isinstance(v, bool):
r = ir_values.VBool()
else:
raise NotImplementedError
if self.builder is not None:
r.set_const_value(self.builder, v)
return r
def _visit_expr_Num(self, node):
n = node.n
if isinstance(n, int):
if abs(n) < 2**31:
r = ir_values.VInt()
else:
r = ir_values.VInt(64)
else:
raise NotImplementedError
if self.builder is not None:
r.set_const_value(self.builder, n)
return r
def _visit_expr_Num(self, node):
n = node.n
if isinstance(n, int):
if abs(n) < 2**31:
r = ir_values.VInt()
else:
r = ir_values.VInt(64)
else:
raise NotImplementedError
if self.builder is not None:
r.set_const_value(self.builder, n)
return r
def _visit_expr_UnaryOp(self, node):
ast_unops = {
ast.Invert: ir_values.operators.inv,
ast.Not: ir_values.operators.not_,
ast.UAdd: ir_values.operators.pos,
ast.USub: ir_values.operators.neg
}
return ast_unops[type(node.op)](self.visit_expression(node.operand), self.builder)
def _visit_expr_UnaryOp(self, node):
ast_unops = {
ast.Invert: ir_values.operators.inv,
ast.Not: ir_values.operators.not_,
ast.UAdd: ir_values.operators.pos,
ast.USub: ir_values.operators.neg
}
return ast_unops[type(node.op)](self.visit_expression(node.operand),
self.builder)
def _visit_expr_BinOp(self, node):
ast_binops = {
ast.Add: ir_values.operators.add,
ast.Sub: ir_values.operators.sub,
ast.Mult: ir_values.operators.mul,
ast.Div: ir_values.operators.truediv,
ast.FloorDiv: ir_values.operators.floordiv,
ast.Mod: ir_values.operators.mod,
ast.Pow: ir_values.operators.pow,
ast.LShift: ir_values.operators.lshift,
ast.RShift: ir_values.operators.rshift,
ast.BitOr: ir_values.operators.or_,
ast.BitXor: ir_values.operators.xor,
ast.BitAnd: ir_values.operators.and_
}
return ast_binops[type(node.op)](self.visit_expression(node.left), self.visit_expression(node.right), self.builder)
def _visit_expr_BinOp(self, node):
ast_binops = {
ast.Add: ir_values.operators.add,
ast.Sub: ir_values.operators.sub,
ast.Mult: ir_values.operators.mul,
ast.Div: ir_values.operators.truediv,
ast.FloorDiv: ir_values.operators.floordiv,
ast.Mod: ir_values.operators.mod,
ast.Pow: ir_values.operators.pow,
ast.LShift: ir_values.operators.lshift,
ast.RShift: ir_values.operators.rshift,
ast.BitOr: ir_values.operators.or_,
ast.BitXor: ir_values.operators.xor,
ast.BitAnd: ir_values.operators.and_
}
return ast_binops[type(node.op)](self.visit_expression(node.left),
self.visit_expression(node.right),
self.builder)
def _visit_expr_Compare(self, node):
ast_cmps = {
ast.Eq: ir_values.operators.eq,
ast.NotEq: ir_values.operators.ne,
ast.Lt: ir_values.operators.lt,
ast.LtE: ir_values.operators.le,
ast.Gt: ir_values.operators.gt,
ast.GtE: ir_values.operators.ge
}
comparisons = []
old_comparator = self.visit_expression(node.left)
for op, comparator_a in zip(node.ops, node.comparators):
comparator = self.visit_expression(comparator_a)
comparison = ast_cmps[type(op)](old_comparator, comparator, self.builder)
comparisons.append(comparison)
old_comparator = comparator
r = comparisons[0]
for comparison in comparisons[1:]:
r = ir_values.operators.and_(r, comparison)
return r
def _visit_expr_Compare(self, node):
ast_cmps = {
ast.Eq: ir_values.operators.eq,
ast.NotEq: ir_values.operators.ne,
ast.Lt: ir_values.operators.lt,
ast.LtE: ir_values.operators.le,
ast.Gt: ir_values.operators.gt,
ast.GtE: ir_values.operators.ge
}
comparisons = []
old_comparator = self.visit_expression(node.left)
for op, comparator_a in zip(node.ops, node.comparators):
comparator = self.visit_expression(comparator_a)
comparison = ast_cmps[type(op)](old_comparator, comparator,
self.builder)
comparisons.append(comparison)
old_comparator = comparator
r = comparisons[0]
for comparison in comparisons[1:]:
r = ir_values.operators.and_(r, comparison)
return r
def _visit_expr_Call(self, node):
ast_unfuns = {
"bool": ir_values.operators.bool,
"int": ir_values.operators.int,
"int64": ir_values.operators.int64,
"round": ir_values.operators.round,
"round64": ir_values.operators.round64,
}
fn = node.func.id
if fn in ast_unfuns:
return ast_unfuns[fn](self.visit_expression(node.args[0]), self.builder)
elif fn == "Fraction":
r = ir_values.VFraction()
if self.builder is not None:
numerator = self.visit_expression(node.args[0])
denominator = self.visit_expression(node.args[1])
r.set_value_nd(self.builder, numerator, denominator)
return r
elif fn == "syscall":
return self.env.syscall(node.args[0].s,
[self.visit_expression(expr) for expr in node.args[1:]],
self.builder)
else:
raise NameError("Function '{}' is not defined".format(fn))
def _visit_expr_Call(self, node):
ast_unfuns = {
"bool": ir_values.operators.bool,
"int": ir_values.operators.int,
"int64": ir_values.operators.int64,
"round": ir_values.operators.round,
"round64": ir_values.operators.round64,
}
fn = node.func.id
if fn in ast_unfuns:
return ast_unfuns[fn](self.visit_expression(node.args[0]),
self.builder)
elif fn == "Fraction":
r = ir_values.VFraction()
if self.builder is not None:
numerator = self.visit_expression(node.args[0])
denominator = self.visit_expression(node.args[1])
r.set_value_nd(self.builder, numerator, denominator)
return r
elif fn == "syscall":
return self.env.syscall(
node.args[0].s,
[self.visit_expression(expr) for expr in node.args[1:]],
self.builder)
else:
raise NameError("Function '{}' is not defined".format(fn))
def visit_statements(self, stmts):
for node in stmts:
method = "_visit_stmt_" + node.__class__.__name__
try:
visitor = getattr(self, method)
except AttributeError:
raise NotImplementedError("Unsupported node '{}' in statement".format(node.__class__.__name__))
visitor(node)
def visit_statements(self, stmts):
for node in stmts:
method = "_visit_stmt_" + node.__class__.__name__
try:
visitor = getattr(self, method)
except AttributeError:
raise NotImplementedError("Unsupported node '{}' in statement"
.format(node.__class__.__name__))
visitor(node)
def _visit_stmt_Assign(self, node):
val = self.visit_expression(node.value)
for target in node.targets:
if isinstance(target, ast.Name):
self.ns[target.id].set_value(self.builder, val)
else:
raise NotImplementedError
def _visit_stmt_Assign(self, node):
val = self.visit_expression(node.value)
for target in node.targets:
if isinstance(target, ast.Name):
self.ns[target.id].set_value(self.builder, val)
else:
raise NotImplementedError
def _visit_stmt_AugAssign(self, node):
val = self.visit_expression(ast.BinOp(op=node.op, left=node.target, right=node.value))
if isinstance(node.target, ast.Name):
self.ns[node.target.id].set_value(self.builder, val)
else:
raise NotImplementedError
def _visit_stmt_AugAssign(self, node):
val = self.visit_expression(ast.BinOp(op=node.op, left=node.target,
right=node.value))
if isinstance(node.target, ast.Name):
self.ns[node.target.id].set_value(self.builder, val)
else:
raise NotImplementedError
def _visit_stmt_Expr(self, node):
self.visit_expression(node.value)
def _visit_stmt_Expr(self, node):
self.visit_expression(node.value)
def _visit_stmt_If(self, node):
function = self.builder.basic_block.function
then_block = function.append_basic_block("i_then")
else_block = function.append_basic_block("i_else")
merge_block = function.append_basic_block("i_merge")
def _visit_stmt_If(self, node):
function = self.builder.basic_block.function
then_block = function.append_basic_block("i_then")
else_block = function.append_basic_block("i_else")
merge_block = function.append_basic_block("i_merge")
condition = ir_values.operators.bool(self.visit_expression(node.test), self.builder)
self.builder.cbranch(condition.get_ssa_value(self.builder), then_block, else_block)
condition = ir_values.operators.bool(self.visit_expression(node.test),
self.builder)
self.builder.cbranch(condition.get_ssa_value(self.builder),
then_block, else_block)
self.builder.position_at_end(then_block)
self.visit_statements(node.body)
self.builder.branch(merge_block)
self.builder.position_at_end(then_block)
self.visit_statements(node.body)
self.builder.branch(merge_block)
self.builder.position_at_end(else_block)
self.visit_statements(node.orelse)
self.builder.branch(merge_block)
self.builder.position_at_end(else_block)
self.visit_statements(node.orelse)
self.builder.branch(merge_block)
self.builder.position_at_end(merge_block)
self.builder.position_at_end(merge_block)
def _visit_stmt_While(self, node):
function = self.builder.basic_block.function
body_block = function.append_basic_block("w_body")
else_block = function.append_basic_block("w_else")
merge_block = function.append_basic_block("w_merge")
def _visit_stmt_While(self, node):
function = self.builder.basic_block.function
body_block = function.append_basic_block("w_body")
else_block = function.append_basic_block("w_else")
merge_block = function.append_basic_block("w_merge")
condition = ir_values.operators.bool(self.visit_expression(node.test), self.builder)
self.builder.cbranch(condition.get_ssa_value(self.builder), body_block, else_block)
condition = ir_values.operators.bool(
self.visit_expression(node.test), self.builder)
self.builder.cbranch(
condition.get_ssa_value(self.builder), body_block, else_block)
self.builder.position_at_end(body_block)
self.visit_statements(node.body)
condition = ir_values.operators.bool(self.visit_expression(node.test), self.builder)
self.builder.cbranch(condition.get_ssa_value(self.builder), body_block, merge_block)
self.builder.position_at_end(body_block)
self.visit_statements(node.body)
condition = ir_values.operators.bool(
self.visit_expression(node.test), self.builder)
self.builder.cbranch(
condition.get_ssa_value(self.builder), body_block, merge_block)
self.builder.position_at_end(else_block)
self.visit_statements(node.orelse)
self.builder.branch(merge_block)
self.builder.position_at_end(else_block)
self.visit_statements(node.orelse)
self.builder.branch(merge_block)
self.builder.position_at_end(merge_block)
self.builder.position_at_end(merge_block)

75
artiq/compiler/ir_infer_types.py
View File

@ -4,46 +4,49 @@ from copy import deepcopy
from artiq.compiler.ir_ast_body import Visitor
class _TypeScanner(ast.NodeVisitor):
def __init__(self, env, ns):
self.exprv = Visitor(env, ns)
def __init__(self, env, ns):
self.exprv = Visitor(env, ns)
def visit_Assign(self, node):
val = self.exprv.visit_expression(node.value)
ns = self.exprv.ns
for target in node.targets:
if isinstance(target, ast.Name):
if target.id in ns:
ns[target.id].merge(val)
else:
ns[target.id] = val
else:
raise NotImplementedError
def visit_Assign(self, node):
val = self.exprv.visit_expression(node.value)
ns = self.exprv.ns
for target in node.targets:
if isinstance(target, ast.Name):
if target.id in ns:
ns[target.id].merge(val)
else:
ns[target.id] = val
else:
raise NotImplementedError
def visit_AugAssign(self, node):
val = self.exprv.visit_expression(ast.BinOp(
op=node.op, left=node.target, right=node.value))
ns = self.exprv.ns
target = node.target
if isinstance(target, ast.Name):
if target.id in ns:
ns[target.id].merge(val)
else:
ns[target.id] = val
else:
raise NotImplementedError
def visit_AugAssign(self, node):
val = self.exprv.visit_expression(ast.BinOp(op=node.op, left=node.target, right=node.value))
ns = self.exprv.ns
target = node.target
if isinstance(target, ast.Name):
if target.id in ns:
ns[target.id].merge(val)
else:
ns[target.id] = val
else:
raise NotImplementedError
def infer_types(env, node):
ns = dict()
while True:
prev_ns = deepcopy(ns)
ts = _TypeScanner(env, ns)
ts.visit(node)
if prev_ns and all(v.same_type(prev_ns[k]) for k, v in ns.items()):
# no more promotions - completed
return ns
ns = dict()
while True:
prev_ns = deepcopy(ns)
ts = _TypeScanner(env, ns)
ts.visit(node)
if prev_ns and all(v.same_type(prev_ns[k]) for k, v in ns.items()):
# no more promotions - completed
return ns
if __name__ == "__main__":
testcode = """
testcode = """
a = 2 # promoted later to int64
b = a + 1 # initially int32, becomes int64 after a is promoted
c = b//2 # initially int32, becomes int64 after b is promoted
@ -53,6 +56,6 @@ a += x # promotes a to int64
foo = True
bar = None
"""
ns = infer_types(None, ast.parse(testcode))
for k, v in sorted(ns.items(), key=itemgetter(0)):
print("{:10}--> {}".format(k, str(v)))
ns = infer_types(None, ast.parse(testcode))
for k, v in sorted(ns.items(), key=itemgetter(0)):
print("{:10}--> {}".format(k, str(v)))

678
artiq/compiler/ir_values.py
View File

@ -2,404 +2,450 @@ from types import SimpleNamespace
from llvm import core as lc
class _Value:
def __init__(self):
self._llvm_value = None
def __init__(self):
self._llvm_value = None
def get_ssa_value(self, builder):
if isinstance(self._llvm_value, lc.AllocaInstruction):
return builder.load(self._llvm_value)
else:
return self._llvm_value
def get_ssa_value(self, builder):
if isinstance(self._llvm_value, lc.AllocaInstruction):
return builder.load(self._llvm_value)
else:
return self._llvm_value
def set_ssa_value(self, builder, value):
if self._llvm_value is None:
self._llvm_value = value
elif isinstance(self._llvm_value, lc.AllocaInstruction):
builder.store(value, self._llvm_value)
else:
raise RuntimeError("Attempted to set LLVM SSA value multiple times")
def set_ssa_value(self, builder, value):
if self._llvm_value is None:
self._llvm_value = value
elif isinstance(self._llvm_value, lc.AllocaInstruction):
builder.store(value, self._llvm_value)
else:
raise RuntimeError(
"Attempted to set LLVM SSA value multiple times")
def alloca(self, builder, name):
if self._llvm_value is not None:
raise RuntimeError("Attempted to alloca existing LLVM value")
self._llvm_value = builder.alloca(self.get_llvm_type(), name=name)
def alloca(self, builder, name):
if self._llvm_value is not None:
raise RuntimeError("Attempted to alloca existing LLVM value")
self._llvm_value = builder.alloca(self.get_llvm_type(), name=name)
def o_int(self, builder):
return self.o_intx(32, builder)
def o_int(self, builder):
return self.o_intx(32, builder)
def o_int64(self, builder):
return self.o_intx(64, builder)
def o_int64(self, builder):
return self.o_intx(64, builder)
def o_round(self, builder):
return self.o_roundx(32, builder)
def o_round(self, builder):
return self.o_roundx(32, builder)
def o_round64(self, builder):
return self.o_roundx(64, builder)
def o_round64(self, builder):
return self.o_roundx(64, builder)
# None type
class VNone(_Value):
def __repr__(self):
return "<VNone>"
def __repr__(self):
return "<VNone>"
def get_llvm_type(self):
return lc.Type.void()
def get_llvm_type(self):
return lc.Type.void()
def same_type(self, other):
return isinstance(other, VNone)
def same_type(self, other):
return isinstance(other, VNone)
def merge(self, other):
if not isinstance(other, VNone):
raise TypeError
def merge(self, other):
if not isinstance(other, VNone):
raise TypeError
def alloca(self, builder, name):
pass
def alloca(self, builder, name):
pass
def o_bool(self, builder):
r = VBool()
if builder is not None:
r.set_const_value(builder, False)
return r
def o_bool(self, builder):
r = VBool()
if builder is not None:
r.set_const_value(builder, False)
return r
# Integer type
class VInt(_Value):
def __init__(self, nbits=32):
_Value.__init__(self)
self.nbits = nbits
def __init__(self, nbits=32):
_Value.__init__(self)
self.nbits = nbits
def get_llvm_type(self):
return lc.Type.int(self.nbits)
def get_llvm_type(self):
return lc.Type.int(self.nbits)
def __repr__(self):
return "<VInt:{}>".format(self.nbits)
def __repr__(self):
return "<VInt:{}>".format(self.nbits)
def same_type(self, other):
return isinstance(other, VInt) and other.nbits == self.nbits
def same_type(self, other):
return isinstance(other, VInt) and other.nbits == self.nbits
def merge(self, other):
if isinstance(other, VInt) and not isinstance(other, VBool):
if other.nbits > self.nbits:
self.nbits = other.nbits
else:
raise TypeError
def merge(self, other):
if isinstance(other, VInt) and not isinstance(other, VBool):
if other.nbits > self.nbits:
self.nbits = other.nbits
else:
raise TypeError
def set_value(self, builder, n):
self.set_ssa_value(builder, n.o_intx(self.nbits, builder).get_ssa_value(builder))
def set_value(self, builder, n):
self.set_ssa_value(
builder, n.o_intx(self.nbits, builder).get_ssa_value(builder))
def set_const_value(self, builder, n):
self.set_ssa_value(builder, lc.Constant.int(self.get_llvm_type(), n))
def set_const_value(self, builder, n):
self.set_ssa_value(builder, lc.Constant.int(self.get_llvm_type(), n))
def o_bool(self, builder):
r = VBool()
if builder is not None:
r.set_ssa_value(builder, builder.icmp(lc.ICMP_NE,
self.get_ssa_value(builder), lc.Constant.int(self.get_llvm_type(), 0)))
return r
def o_bool(self, builder):
r = VBool()
if builder is not None:
r.set_ssa_value(
builder, builder.icmp(
lc.ICMP_NE,
self.get_ssa_value(builder),
lc.Constant.int(self.get_llvm_type(), 0)))
return r
def o_intx(self, target_bits, builder):
r = VInt(target_bits)
if builder is not None:
if self.nbits == target_bits:
r.set_ssa_value(
builder, self.get_ssa_value(builder))
if self.nbits > target_bits:
r.set_ssa_value(
builder, builder.trunc(self.get_ssa_value(builder),
r.get_llvm_type()))
if self.nbits < target_bits:
r.set_ssa_value(
builder, builder.sext(self.get_ssa_value(builder),
r.get_llvm_type()))
return r
o_roundx = o_intx
def o_intx(self, target_bits, builder):
r = VInt(target_bits)
if builder is not None:
if self.nbits == target_bits:
r.set_ssa_value(builder, self.get_ssa_value(builder))
if self.nbits > target_bits:
r.set_ssa_value(builder, builder.trunc(self.get_ssa_value(builder), r.get_llvm_type()))
if self.nbits < target_bits:
r.set_ssa_value(builder, builder.sext(self.get_ssa_value(builder), r.get_llvm_type()))
return r
o_roundx = o_intx
def _make_vint_binop_method(builder_name):
def binop_method(self, other, builder):
if isinstance(other, VInt):
target_bits = max(self.nbits, other.nbits)
r = VInt(target_bits)
if builder is not None:
left = self.o_intx(target_bits, builder)
right = other.o_intx(target_bits, builder)
bf = getattr(builder, builder_name)
r.set_ssa_value(builder,
bf(left.get_ssa_value(builder), right.get_ssa_value(builder)))
return r
else:
return NotImplemented
return binop_method
def binop_method(self, other, builder):
if isinstance(other, VInt):
target_bits = max(self.nbits, other.nbits)
r = VInt(target_bits)
if builder is not None:
left = self.o_intx(target_bits, builder)
right = other.o_intx(target_bits, builder)
bf = getattr(builder, builder_name)
r.set_ssa_value(
builder, bf(left.get_ssa_value(builder),
right.get_ssa_value(builder)))
return r
else:
return NotImplemented
return binop_method
for _method_name, _builder_name in (("o_add", "add"),
("o_sub", "sub"),
("o_mul", "mul"),
("o_floordiv", "sdiv"),
("o_mod", "srem"),
("o_and", "and_"),
("o_xor", "xor"),
("o_or", "or_")):
setattr(VInt, _method_name, _make_vint_binop_method(_builder_name))
for _method_name, _builder_name in (
("o_add", "add"),
("o_sub", "sub"),
("o_mul", "mul"),
("o_floordiv", "sdiv"),
("o_mod", "srem"),
("o_and", "and_"),
("o_xor", "xor"),
("o_or", "or_")):
setattr(VInt, _method_name, _make_vint_binop_method(_builder_name))
def _make_vint_cmp_method(icmp_val):
def cmp_method(self, other, builder):
if isinstance(other, VInt):
r = VBool()
if builder is not None:
target_bits = max(self.nbits, other.nbits)
left = self.o_intx(target_bits, builder)
right = other.o_intx(target_bits, builder)
r.set_ssa_value(builder,
builder.icmp(icmp_val, left.get_ssa_value(builder), right.get_ssa_value(builder)))
return r
else:
return NotImplemented
return cmp_method
def cmp_method(self, other, builder):
if isinstance(other, VInt):
r = VBool()
if builder is not None:
target_bits = max(self.nbits, other.nbits)
left = self.o_intx(target_bits, builder)
right = other.o_intx(target_bits, builder)
r.set_ssa_value(
builder,
builder.icmp(
icmp_val, left.get_ssa_value(builder),
right.get_ssa_value(builder)))
return r
else:
return NotImplemented
return cmp_method
for _method_name, _icmp_val in (("o_eq", lc.ICMP_EQ),
("o_ne", lc.ICMP_NE),
("o_lt", lc.ICMP_SLT),
("o_le", lc.ICMP_SLE),
("o_gt", lc.ICMP_SGT),
("o_ge", lc.ICMP_SGE)):
setattr(VInt, _method_name, _make_vint_cmp_method(_icmp_val))
for _method_name, _icmp_val in (
("o_eq", lc.ICMP_EQ),
("o_ne", lc.ICMP_NE),
("o_lt", lc.ICMP_SLT),
("o_le", lc.ICMP_SLE),
("o_gt", lc.ICMP_SGT),
("o_ge", lc.ICMP_SGE)):
setattr(VInt, _method_name, _make_vint_cmp_method(_icmp_val))
# Boolean type
class VBool(VInt):
def __init__(self):
VInt.__init__(self, 1)
def __init__(self):
VInt.__init__(self, 1)
def __repr__(self):
return "<VBool>"
def __repr__(self):
return "<VBool>"
def same_type(self, other):
return isinstance(other, VBool)
def same_type(self, other):
return isinstance(other, VBool)
def merge(self, other):
if not isinstance(other, VBool):
raise TypeError
def merge(self, other):
if not isinstance(other, VBool):
raise TypeError
def set_const_value(self, builder, b):
VInt.set_const_value(self, builder, int(b))
def set_const_value(self, builder, b):
VInt.set_const_value(self, builder, int(b))
def o_bool(self, builder):
r = VBool()
if builder is not None:
r.set_ssa_value(builder, self.get_ssa_value(builder))
return r
def o_bool(self, builder):
r = VBool()
if builder is not None:
r.set_ssa_value(builder, self.get_ssa_value(builder))
return r
# Fraction type
def _gcd64(builder, a, b):
gcd_f = builder.module.get_function_named("__gcd64")
return builder.call(gcd_f, [a, b])
gcd_f = builder.module.get_function_named("__gcd64")
return builder.call(gcd_f, [a, b])
def _frac_normalize(builder, numerator, denominator):
gcd = _gcd64(numerator, denominator)
numerator = builder.sdiv(numerator, gcd)
denominator = builder.sdiv(denominator, gcd)
return numerator, denominator
gcd = _gcd64(numerator, denominator)
numerator = builder.sdiv(numerator, gcd)
denominator = builder.sdiv(denominator, gcd)
return numerator, denominator
def _frac_make_ssa(builder, numerator, denominator):
value = lc.Constant.undef(lc.Type.vector(lc.Type.int(64), 2))
value = builder.insert_element(value, numerator, lc.Constant.int(lc.Type.int(), 0))
value = builder.insert_element(value, denominator, lc.Constant.int(lc.Type.int(), 1))
return value
value = lc.Constant.undef(lc.Type.vector(lc.Type.int(64), 2))
value = builder.insert_element(
value, numerator, lc.Constant.int(lc.Type.int(), 0))
value = builder.insert_element(
value, denominator, lc.Constant.int(lc.Type.int(), 1))
return value
class VFraction(_Value):
def get_llvm_type(self):
return lc.Type.vector(lc.Type.int(64), 2)
def get_llvm_type(self):
return lc.Type.vector(lc.Type.int(64), 2)
def __repr__(self):
return "<VFraction>"
def __repr__(self):
return "<VFraction>"
def same_type(self, other):
return isinstance(other, VFraction)
def same_type(self, other):
return isinstance(other, VFraction)
def merge(self, other):
if not isinstance(other, VFraction):
raise TypeError
def merge(self, other):
if not isinstance(other, VFraction):
raise TypeError
def _nd(self, builder, invert=False):
ssa_value = self.get_ssa_value(builder)
numerator = builder.extract_element(ssa_value, lc.Constant.int(lc.Type.int(), 0))
denominator = builder.extract_element(ssa_value, lc.Constant.int(lc.Type.int(), 1))
if invert:
return denominator, numerator
else:
return numerator, denominator
def _nd(self, builder, invert=False):
ssa_value = self.get_ssa_value(builder)
numerator = builder.extract_element(
ssa_value, lc.Constant.int(lc.Type.int(), 0))
denominator = builder.extract_element(
ssa_value, lc.Constant.int(lc.Type.int(), 1))
if invert:
return denominator, numerator
else:
return numerator, denominator
def set_value_nd(self, builder, numerator, denominator):
numerator = numerator.o_int64(builder).get_ssa_value(builder)
denominator = denominator.o_int64(builder).get_ssa_value(builder)
numerator, denominator = _frac_normalize(builder, numerator, denominator)
self.set_ssa_value(builder, _frac_make_ssa(builder, numerator, denominator))
def set_value_nd(self, builder, numerator, denominator):
numerator = numerator.o_int64(builder).get_ssa_value(builder)
denominator = denominator.o_int64(builder).get_ssa_value(builder)
numerator, denominator = _frac_normalize(
builder, numerator, denominator)
self.set_ssa_value(
builder, _frac_make_ssa(builder, numerator, denominator))
def set_value(self, builder, n):
if not isinstance(n, VFraction):
raise TypeError
self.set_ssa_value(builder, n.get_ssa_value(builder))
def set_value(self, builder, n):
if not isinstance(n, VFraction):
raise TypeError
self.set_ssa_value(builder, n.get_ssa_value(builder))
def o_bool(self, builder):
r = VBool()
if builder is not None:
zero = lc.Constant.int(lc.Type.int(64), 0)
numerator = builder.extract_element(self.get_ssa_value(builder), lc.Constant.int(lc.Type.int(), 0))
r.set_ssa_value(builder, builder.icmp(lc.ICMP_NE, numerator, zero))
return r
def o_bool(self, builder):
r = VBool()
if builder is not None:
zero = lc.Constant.int(lc.Type.int(64), 0)
numerator = builder.extract_element(
self.get_ssa_value(builder), lc.Constant.int(lc.Type.int(), 0))
r.set_ssa_value(builder, builder.icmp(lc.ICMP_NE, numerator, zero))
return r
def o_intx(self, target_bits, builder):
if builder is None:
return VInt(target_bits)
else:
r = VInt(64)
numerator, denominator = self._nd(builder)
r.set_ssa_value(builder, builder.sdiv(numerator, denominator))
return r.o_intx(target_bits, builder)
def o_intx(self, target_bits, builder):
if builder is None:
return VInt(target_bits)
else:
r = VInt(64)
numerator, denominator = self._nd(builder)
r.set_ssa_value(builder, builder.sdiv(numerator, denominator))
return r.o_intx(target_bits, builder)
def o_roundx(self, target_bits, builder):
if builder is None:
return VInt(target_bits)
else:
r = VInt(64)
numerator, denominator = self._nd(builder)
h_denominator = builder.ashr(denominator, lc.Constant.int(lc.Type.int(), 1))
r_numerator = builder.add(numerator, h_denominator)
r.set_ssa_value(builder, builder.sdiv(r_numerator, denominator))
return r.o_intx(target_bits, builder)
def o_roundx(self, target_bits, builder):
if builder is None:
return VInt(target_bits)
else:
r = VInt(64)
numerator, denominator = self._nd(builder)
h_denominator = builder.ashr(denominator,
lc.Constant.int(lc.Type.int(), 1))
r_numerator = builder.add(numerator, h_denominator)
r.set_ssa_value(builder, builder.sdiv(r_numerator, denominator))
return r.o_intx(target_bits, builder)
def _o_eq_inv(self, other, builder, ne):
if isinstance(other, VFraction):
r = VBool()
if builder is not None:
ee = []
for i in range(2):
es = builder.extract_element(self.get_ssa_value(builder), lc.Constant.int(lc.Type.int(), i))
eo = builder.extract_element(other.get_ssa_value(builder), lc.Constant.int(lc.Type.int(), i))
ee.append(builder.icmp(lc.ICMP_EQ, es, eo))
ssa_r = builder.and_(ee[0], ee[1])
if ne:
ssa_r = builder.xor(ssa_r, lc.Constant.int(lc.Type.int(1), 1))
r.set_ssa_value(builder, ssa_r)
return r
else:
return NotImplemented
def _o_eq_inv(self, other, builder, ne):
if isinstance(other, VFraction):
r = VBool()
if builder is not None:
ee = []
for i in range(2):
es = builder.extract_element(
self.get_ssa_value(builder),
lc.Constant.int(lc.Type.int(), i))
eo = builder.extract_element(
other.get_ssa_value(builder),
lc.Constant.int(lc.Type.int(), i))
ee.append(builder.icmp(lc.ICMP_EQ, es, eo))
ssa_r = builder.and_(ee[0], ee[1])
if ne:
ssa_r = builder.xor(ssa_r,
lc.Constant.int(lc.Type.int(1), 1))
r.set_ssa_value(builder, ssa_r)
return r
else:
return NotImplemented
def o_eq(self, other, builder):
return self._o_eq_inv(other, builder, False)
def o_eq(self, other, builder):
return self._o_eq_inv(other, builder, False)
def o_ne(self, other, builder):
return self._o_eq_inv(other, builder, True)
def o_ne(self, other, builder):
return self._o_eq_inv(other, builder, True)
def _o_muldiv(self, other, builder, div, invert=False):
r = VFraction()
if isinstance(other, VInt):
if builder is None:
return r
else:
numerator, denominator = self._nd(builder, invert)
i = other.get_ssa_value(builder)
if div:
gcd = _gcd64(i, numerator)
i = builder.sdiv(i, gcd)
numerator = builder.sdiv(numerator, gcd)
denominator = builder.mul(denominator, i)
else:
gcd = _gcd64(i, denominator)
i = builder.sdiv(i, gcd)
denominator = builder.sdiv(denominator, gcd)
numerator = builder.mul(numerator, i)
self.set_ssa_value(builder, _frac_make_ssa(builder, numerator, denominator))
elif isinstance(other, VFraction):
if builder is None:
return r
else:
numerator, denominator = self._nd(builder, invert)
onumerator, odenominator = other._nd(builder)
if div:
numerator = builder.mul(numerator, odenominator)
denominator = builder.mul(denominator, onumerator)
else:
numerator = builder.mul(numerator, onumerator)
denominator = builder.mul(denominator, odenominator)
numerator, denominator = _frac_normalize(builder, numerator, denominator)
self.set_ssa_value(builder, _frac_make_ssa(builder, numerator, denominator))
else:
return NotImplemented
def _o_muldiv(self, other, builder, div, invert=False):
r = VFraction()
if isinstance(other, VInt):
if builder is None:
return r
else:
numerator, denominator = self._nd(builder, invert)
i = other.get_ssa_value(builder)
if div:
gcd = _gcd64(i, numerator)
i = builder.sdiv(i, gcd)
numerator = builder.sdiv(numerator, gcd)
denominator = builder.mul(denominator, i)
else:
gcd = _gcd64(i, denominator)
i = builder.sdiv(i, gcd)
denominator = builder.sdiv(denominator, gcd)
numerator = builder.mul(numerator, i)
self.set_ssa_value(builder, _frac_make_ssa(builder, numerator,
denominator))
elif isinstance(other, VFraction):
if builder is None:
return r
else:
numerator, denominator = self._nd(builder, invert)
onumerator, odenominator = other._nd(builder)
if div:
numerator = builder.mul(numerator, odenominator)
denominator = builder.mul(denominator, onumerator)
else:
numerator = builder.mul(numerator, onumerator)
denominator = builder.mul(denominator, odenominator)
numerator, denominator = _frac_normalize(builder, numerator,
denominator)
self.set_ssa_value(
builder, _frac_make_ssa(builder, numerator, denominator))
else:
return NotImplemented
def o_mul(self, other, builder):
return self._o_muldiv(other, builder, False)
def o_mul(self, other, builder):
return self._o_muldiv(other, builder, False)
def o_truediv(self, other, builder):
return self._o_muldiv(other, builder, True)
def o_truediv(self, other, builder):
return self._o_muldiv(other, builder, True)
def or_mul(self, other, builder):
return self._o_muldiv(other, builder, False)
def or_mul(self, other, builder):
return self._o_muldiv(other, builder, False)
def or_truediv(self, other, builder):
return self._o_muldiv(other, builder, False, True)
def or_truediv(self, other, builder):
return self._o_muldiv(other, builder, False, True)
def o_floordiv(self, other, builder):
r = self.o_truediv(other, builder)
if r is NotImplemented:
return r
else:
return r.o_int(builder)
def o_floordiv(self, other, builder):
r = self.o_truediv(other, builder)
if r is NotImplemented:
return r
else:
return r.o_int(builder)
def or_floordiv(self, other, builder):
r = self.or_truediv(other, builder)
if r is NotImplemented:
return r
else:
return r.o_int(builder)
def or_floordiv(self, other, builder):
r = self.or_truediv(other, builder)
if r is NotImplemented:
return r
else:
return r.o_int(builder)
# Operators
def _make_unary_operator(op_name):
def op(x, builder):
try:
opf = getattr(x, "o_"+op_name)
except AttributeError:
raise TypeError("Unsupported operand type for {}: {}".format(op_name, type(x).__name__))
return opf(builder)
return op
def op(x, builder):
try:
opf = getattr(x, "o_"+op_name)
except AttributeError:
raise TypeError(
"Unsupported operand type for {}: {}"
.format(op_name, type(x).__name__))
return opf(builder)
return op
def _make_binary_operator(op_name):
def op(l, r, builder):
try:
opf = getattr(l, "o_"+op_name)
except AttributeError:
result = NotImplemented
else:
result = opf(r, builder)
if result is NotImplemented:
try:
ropf = getattr(r, "or_"+op_name)
except AttributeError:
result = NotImplemented
else:
result = ropf(l, builder)
if result is NotImplemented:
raise TypeError("Unsupported operand types for {}: {} and {}".format(
op_name, type(l).__name__, type(r).__name__))
return result
return op
def op(l, r, builder):
try:
opf = getattr(l, "o_"+op_name)
except AttributeError:
result = NotImplemented
else:
result = opf(r, builder)
if result is NotImplemented:
try:
ropf = getattr(r, "or_"+op_name)
except AttributeError:
result = NotImplemented
else:
result = ropf(l, builder)
if result is NotImplemented:
raise TypeError(
"Unsupported operand types for {}: {} and {}"
.format(op_name, type(l).__name__, type(r).__name__))
return result
return op
def _make_operators():
d = dict()
for op_name in ("bool", "int", "int64", "round", "round64", "inv", "pos", "neg"):
d[op_name] = _make_unary_operator(op_name)
d["not_"] = _make_binary_operator("not")
for op_name in ("add", "sub", "mul",
"truediv", "floordiv", "mod",
"pow", "lshift", "rshift", "xor",
"eq", "ne", "lt", "le", "gt", "ge"):
d[op_name] = _make_binary_operator(op_name)
d["and_"] = _make_binary_operator("and")
d["or_"] = _make_binary_operator("or")
return SimpleNamespace(**d)
d = dict()
for op_name in ("bool", "int", "int64", "round", "round64",
"inv", "pos", "neg"):
d[op_name] = _make_unary_operator(op_name)
d["not_"] = _make_binary_operator("not")
for op_name in ("add", "sub", "mul",
"truediv", "floordiv", "mod",
"pow", "lshift", "rshift", "xor",
"eq", "ne", "lt", "le", "gt", "ge"):
d[op_name] = _make_binary_operator(op_name)
d["and_"] = _make_binary_operator("and")
d["or_"] = _make_binary_operator("or")
return SimpleNamespace(**d)
operators = _make_operators()
def init_module(module):
func_type = lc.Type.function(lc.Type.int(64),
[lc.Type.int(64), lc.Type.int(64)])
module.add_function(func_type, "__gcd64")
func_type = lc.Type.function(
lc.Type.int(64), [lc.Type.int(64), lc.Type.int(64)])
module.add_function(func_type, "__gcd64")

71
artiq/compiler/lower_time.py
View File

@ -3,41 +3,48 @@ import ast
from artiq.compiler.tools import value_to_ast
from artiq.language.core import int64
def _insert_int64(node):
return ast.copy_location(
ast.Call(func=ast.Name("int64", ast.Load()),
args=[node],
keywords=[], starargs=[], kwargs=[]), node)
return ast.copy_location(
ast.Call(func=ast.Name("int64", ast.Load()),
args=[node],
keywords=[], starargs=[], kwargs=[]),
node)
class _TimeLowerer(ast.NodeTransformer):
def visit_Call(self, node):
if isinstance(node.func, ast.Name) and node.func.id == "now":
return ast.copy_location(ast.Name("now", ast.Load()), node)
else:
self.generic_visit(node)
return node
def visit_Call(self, node):
if isinstance(node.func, ast.Name) and node.func.id == "now":
return ast.copy_location(ast.Name("now", ast.Load()), node)
else:
self.generic_visit(node)
return node
def visit_Expr(self, node):
self.generic_visit(node)
if (isinstance(node.value, ast.Call)
and isinstance(node.value.func, ast.Name)):
funcname = node.value.func.id
if funcname == "delay":
return ast.copy_location(
ast.AugAssign(target=ast.Name("now", ast.Store()),
op=ast.Add(),
value=_insert_int64(node.value.args[0])),
node)
elif funcname == "at":
return ast.copy_location(
ast.Assign(targets=[ast.Name("now", ast.Store())],
value=_insert_int64(node.value.args[0])),
node)
else:
return node
else:
return node
def visit_Expr(self, node):
self.generic_visit(node)
if isinstance(node.value, ast.Call) and isinstance(node.value.func, ast.Name):
funcname = node.value.func.id
if funcname == "delay":
return ast.copy_location(
ast.AugAssign(target=ast.Name("now", ast.Store()), op=ast.Add(),
value=_insert_int64(node.value.args[0])),
node)
elif funcname == "at":
return ast.copy_location(
ast.Assign(targets=[ast.Name("now", ast.Store())],
value=_insert_int64(node.value.args[0])),
node)
else:
return node
else:
return node
def lower_time(funcdef, initial_time):
_TimeLowerer().visit(funcdef)
funcdef.body.insert(0, ast.copy_location(
ast.Assign(targets=[ast.Name("now", ast.Store())], value=value_to_ast(int64(initial_time))),
funcdef))
_TimeLowerer().visit(funcdef)
funcdef.body.insert(0, ast.copy_location(
ast.Assign(targets=[ast.Name("now", ast.Store())],
value=value_to_ast(int64(initial_time))),
funcdef))

57
artiq/compiler/lower_units.py
View File

@ -3,6 +3,7 @@ import ast
from artiq.compiler.tools import value_to_ast
from artiq.language import units
# TODO:
# * track variable and expression dimensions
# * raise exception on dimension errors in expressions
@ -11,32 +12,36 @@ from artiq.language import units
# e.g. foo = now() + 1*us [...] at(foo)
class _UnitsLowerer(ast.NodeTransformer):
def __init__(self, ref_period):
self.ref_period = ref_period
self.in_core_time = False
def __init__(self, ref_period):
self.ref_period = ref_period
self.in_core_time = False
def visit_Call(self, node):
fn = node.func.id
if fn in ("delay", "at"):
old_in_core_time = self.in_core_time
self.in_core_time = True
self.generic_visit(node)
self.in_core_time = old_in_core_time
elif fn == "Quantity":
if self.in_core_time:
if node.args[1].id == "microcycle_units":
node = node.args[0]
else:
node = ast.copy_location(
ast.BinOp(left=node.args[0],
op=ast.Div(),
right=value_to_ast(self.ref_period)),
node)
else:
node = node.args[0]
else:
self.generic_visit(node)
return node
def visit_Call(self, node):
fn = node.func.id
if fn in ("delay", "at"):
old_in_core_time = self.in_core_time
self.in_core_time = True
self.generic_visit(node)
self.in_core_time = old_in_core_time
elif fn == "Quantity":
if self.in_core_time:
if node.args[1].id == "microcycle_units":
node = node.args[0]
else:
node = ast.copy_location(
ast.BinOp(left=node.args[0], op=ast.Div(), right=value_to_ast(self.ref_period)),
node)
else:
node = node.args[0]
else:
self.generic_visit(node)
return node
def lower_units(funcdef, ref_period):
if not isinstance(ref_period, units.Quantity) or ref_period.unit is not units.s_unit:
raise units.DimensionError("Reference period not expressed in seconds")
_UnitsLowerer(ref_period.amount).visit(funcdef)
if (not isinstance(ref_period, units.Quantity)
or ref_period.unit is not units.s_unit):
raise units.DimensionError("Reference period not expressed in seconds")
_UnitsLowerer(ref_period.amount).visit(funcdef)

107
artiq/compiler/tools.py
View File

@ -4,60 +4,67 @@ from fractions import Fraction
from artiq.language import core as core_language
from artiq.language import units
def eval_ast(expr, symdict=dict()):
if not isinstance(expr, ast.Expression):
expr = ast.copy_location(ast.Expression(expr), expr)
ast.fix_missing_locations(expr)
code = compile(expr, "<ast>", "eval")
return eval(code, symdict)
if not isinstance(expr, ast.Expression):
expr = ast.copy_location(ast.Expression(expr), expr)
ast.fix_missing_locations(expr)
code = compile(expr, "<ast>", "eval")
return eval(code, symdict)
def value_to_ast(value):
if isinstance(value, core_language.int64): # must be before int
return ast.Call(
func=ast.Name("int64", ast.Load()),
args=[ast.Num(int(value))],
keywords=[], starargs=None, kwargs=None)
elif isinstance(value, int):
return ast.Num(value)
elif isinstance(value, Fraction):
return ast.Call(func=ast.Name("Fraction", ast.Load()),
args=[ast.Num(value.numerator), ast.Num(value.denominator)],
keywords=[], starargs=None, kwargs=None)
elif isinstance(value, str):
return ast.Str(value)
else:
for kg in core_language.kernel_globals:
if value is getattr(core_language, kg):
return ast.Name(kg, ast.Load())
if isinstance(value, units.Quantity):
return ast.Call(
func=ast.Name("Quantity", ast.Load()),
args=[value_to_ast(value.amount), ast.Name(value.unit.name+"_unit", ast.Load())],
keywords=[], starargs=None, kwargs=None)
return None
if isinstance(value, core_language.int64): # must be before int
return ast.Call(
func=ast.Name("int64", ast.Load()),
args=[ast.Num(int(value))],
keywords=[], starargs=None, kwargs=None)
elif isinstance(value, int):
return ast.Num(value)
elif isinstance(value, Fraction):
return ast.Call(
func=ast.Name("Fraction", ast.Load()),
args=[ast.Num(value.numerator), ast.Num(value.denominator)],
keywords=[], starargs=None, kwargs=None)
elif isinstance(value, str):
return ast.Str(value)
else:
for kg in core_language.kernel_globals:
if value is getattr(core_language, kg):
return ast.Name(kg, ast.Load())
if isinstance(value, units.Quantity):
return ast.Call(
func=ast.Name("Quantity", ast.Load()),
args=[value_to_ast(value.amount),
ast.Name(value.unit.name+"_unit", ast.Load())],
keywords=[], starargs=None, kwargs=None)
return None
class NotConstant(Exception):
pass
pass
def eval_constant(node):
if isinstance(node, ast.Num):
return node.n
elif isinstance(node, ast.Str):
return node.s
elif isinstance(node, ast.Call):
funcname = node.func.id
if funcname == "Fraction":
numerator, denominator = eval_constant(node.args[0]), eval_constant(node.args[1])
return Fraction(numerator, denominator)
elif funcname == "Quantity":
amount, unit = node.args
amount = eval_constant(amount)
try:
unit = getattr(units, unit.id)
except:
raise NotConstant
return units.Quantity(amount, unit)
else:
raise NotConstant
else:
raise NotConstant
if isinstance(node, ast.Num):
return node.n
elif isinstance(node, ast.Str):
return node.s
elif isinstance(node, ast.Call):
funcname = node.func.id
if funcname == "Fraction":
numerator = eval_constant(node.args[0])
denominator = eval_constant(node.args[1])
return Fraction(numerator, denominator)
elif funcname == "Quantity":
amount, unit = node.args
amount = eval_constant(amount)
try:
unit = getattr(units, unit.id)
except:
raise NotConstant
return units.Quantity(amount, unit)
else:
raise NotConstant
else:
raise NotConstant

1140
artiq/compiler/unparse.py
View File

File diff suppressed because it is too large Load Diff

79
artiq/compiler/unroll_loops.py
View File

@ -2,46 +2,51 @@ import ast
from artiq.compiler.tools import eval_ast, value_to_ast
def _count_stmts(node):
if isinstance(node, (ast.For, ast.While, ast.If)):
return 1 + _count_stmts(node.body) + _count_stmts(node.orelse)
elif isinstance(node, ast.With):
return 1 + _count_stmts(node.body)
elif isinstance(node, list):
return sum(map(_count_stmts, node))
else:
return 1
if isinstance(node, (ast.For, ast.While, ast.If)):
return 1 + _count_stmts(node.body) + _count_stmts(node.orelse)
elif isinstance(node, ast.With):
return 1 + _count_stmts(node.body)
elif isinstance(node, list):
return sum(map(_count_stmts, node))
else:
return 1
class _LoopUnroller(ast.NodeTransformer):
def __init__(self, limit):
self.limit = limit
def __init__(self, limit):
self.limit = limit
def visit_For(self, node):
self.generic_visit(node)
try:
it = eval_ast(node.iter)
except:
return node
l_it = len(it)
if l_it:
n = l_it*_count_stmts(node.body)
if n < self.limit:
replacement = []
for i in it:
if not isinstance(i, int):
replacement = None
break
replacement.append(ast.copy_location(
ast.Assign(targets=[node.target],
value=value_to_ast(i)),
node))
replacement += node.body
if replacement is not None:
return replacement
else:
return node
else:
return node
else:
return node.orelse
def visit_For(self, node):
self.generic_visit(node)
try:
it = eval_ast(node.iter)
except:
return node
l_it = len(it)
if l_it:
n = l_it*_count_stmts(node.body)
if n < self.limit:
replacement = []
for i in it:
if not isinstance(i, int):
replacement = None
break
replacement.append(ast.copy_location(
ast.Assign(targets=[node.target], value=value_to_ast(i)), node))
replacement += node.body
if replacement is not None:
return replacement
else:
return node
else:
return node
else:
return node.orelse
def unroll_loops(node, limit):
_LoopUnroller(limit).visit(node)
_LoopUnroller(limit).visit(node)

33
artiq/devices/core.py
View File

@ -6,22 +6,23 @@ from artiq.compiler.interleave import interleave
from artiq.compiler.lower_time import lower_time
from artiq.compiler.ir import get_runtime_binary
class Core:
def __init__(self, core_com, runtime_env=None):
if runtime_env is None:
runtime_env = core_com.get_runtime_env()
self.runtime_env = runtime_env
self.core_com = core_com
def __init__(self, core_com, runtime_env=None):
if runtime_env is None:
runtime_env = core_com.get_runtime_env()
self.runtime_env = runtime_env
self.core_com = core_com
def run(self, k_function, k_args, k_kwargs):
funcdef, rpc_map = inline(self, k_function, k_args, k_kwargs)
lower_units(funcdef, self.runtime_env.ref_period)
fold_constants(funcdef)
unroll_loops(funcdef, 50)
interleave(funcdef)
lower_time(funcdef, getattr(self.runtime_env, "initial_time", 0))
fold_constants(funcdef)
def run(self, k_function, k_args, k_kwargs):
funcdef, rpc_map = inline(self, k_function, k_args, k_kwargs)
lower_units(funcdef, self.runtime_env.ref_period)
fold_constants(funcdef)
unroll_loops(funcdef, 50)
interleave(funcdef)
lower_time(funcdef, getattr(self.runtime_env, "initial_time", 0))
fold_constants(funcdef)
binary = get_runtime_binary(self.runtime_env, funcdef)
self.core_com.run(binary)
self.core_com.serve(rpc_map)
binary = get_runtime_binary(self.runtime_env, funcdef)
self.core_com.run(binary)
self.core_com.serve(rpc_map)

38
artiq/devices/corecom_dummy.py
View File

@ -3,26 +3,28 @@ from operator import itemgetter
from artiq.devices.runtime import LinkInterface
from artiq.language.units import ns
class _RuntimeEnvironment(LinkInterface):
def __init__(self, ref_period):
self.ref_period = ref_period
def emit_object(self):
return str(self.module)
class _RuntimeEnvironment(LinkInterface):
def __init__(self, ref_period):
self.ref_period = ref_period
def emit_object(self):
return str(self.module)
class CoreCom:
def get_runtime_env(self):
return _RuntimeEnvironment(10*ns)
def get_runtime_env(self):
return _RuntimeEnvironment(10*ns)
def run(self, kcode):
print("================")
print(" LLVM IR")
print("================")
print(kcode)
def run(self, kcode):
print("================")
print(" LLVM IR")
print("================")
print(kcode)
def serve(self, rpc_map):
print("================")
print(" RPC map")
print("================")
for k, v in sorted(rpc_map.items(), key=itemgetter(0)):
print(str(k)+" -> "+str(v))
def serve(self, rpc_map):
print("================")
print(" RPC map")
print("================")
for k, v in sorted(rpc_map.items(), key=itemgetter(0)):
print(str(k)+" -> "+str(v))

195
artiq/devices/corecom_serial.py
View File

@ -1,111 +1,126 @@
import os, termios, struct, zlib
import os
import termios
import struct
import zlib
from enum import Enum
from artiq.language import units
from artiq.devices.runtime import Environment
class UnsupportedDevice(Exception):
pass
pass
class _MsgType(Enum):
REQUEST_IDENT = 0x01
LOAD_KERNEL = 0x02
KERNEL_FINISHED = 0x03
RPC_REQUEST = 0x04
REQUEST_IDENT = 0x01
LOAD_KERNEL = 0x02
KERNEL_FINISHED = 0x03
RPC_REQUEST = 0x04
def _write_exactly(f, data):
remaining = len(data)
pos = 0
while remaining:
written = f.write(data[pos:])
remaining -= written
pos += written
remaining = len(data)
pos = 0
while remaining:
written = f.write(data[pos:])
remaining -= written
pos += written
def _read_exactly(f, n):
r = bytes()
while(len(r) < n):
r += f.read(n - len(r))
return r
r = bytes()
while(len(r) < n):
r += f.read(n - len(r))
return r
class CoreCom:
def __init__(self, dev="/dev/ttyUSB1", baud=115200):
self._fd = os.open(dev, os.O_RDWR | os.O_NOCTTY)
self.port = os.fdopen(self._fd, "r+b", buffering=0)
iflag, oflag, cflag, lflag, ispeed, ospeed, cc = \
termios.tcgetattr(self._fd)
iflag = termios.IGNBRK | termios.IGNPAR
oflag = 0
cflag |= termios.CLOCAL | termios.CREAD | termios.CS8
lflag = 0
ispeed = ospeed = getattr(termios, "B"+str(baud))
cc[termios.VMIN] = 1
cc[termios.VTIME] = 0
termios.tcsetattr(self._fd, termios.TCSANOW, [
iflag, oflag, cflag, lflag, ispeed, ospeed, cc])
termios.tcdrain(self._fd)
termios.tcflush(self._fd, termios.TCOFLUSH)
termios.tcflush(self._fd, termios.TCIFLUSH)
def __init__(self, dev="/dev/ttyUSB1", baud=115200):
self._fd = os.open(dev, os.O_RDWR | os.O_NOCTTY)
self.port = os.fdopen(self._fd, "r+b", buffering=0)
iflag, oflag, cflag, lflag, ispeed, ospeed, cc = \
termios.tcgetattr(self._fd)
iflag = termios.IGNBRK | termios.IGNPAR
oflag = 0
cflag |= termios.CLOCAL | termios.CREAD | termios.CS8
lflag = 0
ispeed = ospeed = getattr(termios, "B"+str(baud))
cc[termios.VMIN] = 1
cc[termios.VTIME] = 0
termios.tcsetattr(self._fd, termios.TCSANOW, [
iflag, oflag, cflag, lflag, ispeed, ospeed, cc])
termios.tcdrain(self._fd)
termios.tcflush(self._fd, termios.TCOFLUSH)
termios.tcflush(self._fd, termios.TCIFLUSH)
def close(self):
self.port.close()
def close(self):
self.port.close()
def __enter__(self):
return self
def __enter__(self):
return self
def __exit__(self, type, value, traceback):
self.close()
def __exit__(self, type, value, traceback):
self.close()
def get_runtime_env(self):
_write_exactly(self.port, struct.pack(">lb", 0x5a5a5a5a, _MsgType.REQUEST_IDENT.value))
# FIXME: when loading immediately after a board reset, we erroneously get some zeros back.
# Ignore them with a warning for now.
spurious_zero_count = 0
while True:
(reply, ) = struct.unpack("b", _read_exactly(self.port, 1))
if reply == 0:
spurious_zero_count += 1
else:
break
if spurious_zero_count:
print("Warning: received {} spurious zeros".format(spurious_zero_count))
runtime_id = chr(reply)
for i in range(3):
(reply, ) = struct.unpack("b", _read_exactly(self.port, 1))
runtime_id += chr(reply)
if runtime_id != "AROR":
raise UnsupportedDevice("Unsupported runtime ID: "+runtime_id)
(ref_period, ) = struct.unpack(">l", _read_exactly(self.port, 4))
return Environment(ref_period*units.ps)
def get_runtime_env(self):
_write_exactly(self.port, struct.pack(
">lb", 0x5a5a5a5a, _MsgType.REQUEST_IDENT.value))
# FIXME: when loading immediately after a board reset,
# we erroneously get some zeros back.
# Ignore them with a warning for now.
spurious_zero_count = 0
while True:
(reply, ) = struct.unpack("b", _read_exactly(self.port, 1))
if reply == 0:
spurious_zero_count += 1
else:
break
if spurious_zero_count:
print("Warning: received {} spurious zeros"
.format(spurious_zero_count))
runtime_id = chr(reply)
for i in range(3):
(reply, ) = struct.unpack("b", _read_exactly(self.port, 1))
runtime_id += chr(reply)
if runtime_id != "AROR":
raise UnsupportedDevice("Unsupported runtime ID: "+runtime_id)
(ref_period, ) = struct.unpack(">l", _read_exactly(self.port, 4))
return Environment(ref_period*units.ps)
def run(self, kcode):
_write_exactly(self.port, struct.pack(">lblL",
0x5a5a5a5a, _MsgType.LOAD_KERNEL.value, len(kcode), zlib.crc32(kcode)))
_write_exactly(self.port, kcode)
(reply, ) = struct.unpack("b", _read_exactly(self.port, 1))
if reply != 0x4f:
raise IOError("Incorrect reply from device: "+hex(reply))
def run(self, kcode):
_write_exactly(self.port, struct.pack(
">lblL",
0x5a5a5a5a, _MsgType.LOAD_KERNEL.value,
len(kcode), zlib.crc32(kcode)))
_write_exactly(self.port, kcode)
(reply, ) = struct.unpack("b", _read_exactly(self.port, 1))
if reply != 0x4f:
raise IOError("Incorrect reply from device: "+hex(reply))
def _wait_sync(self):
recognized = 0
while recognized < 4:
(c, ) = struct.unpack("b", _read_exactly(self.port, 1))
if c == 0x5a:
recognized += 1
else:
recognized = 0
def _wait_sync(self):
recognized = 0
while recognized < 4:
(c, ) = struct.unpack("b", _read_exactly(self.port, 1))
if c == 0x5a:
recognized += 1
else:
recognized = 0
def serve(self, rpc_map):
while True:
self._wait_sync()
msg = _MsgType(*struct.unpack("b", _read_exactly(self.port, 1)))
if msg == _MsgType.KERNEL_FINISHED:
return
elif msg == _MsgType.RPC_REQUEST:
rpc_num, n_args = struct.unpack(">hb", _read_exactly(self.port, 3))
args = []
for i in range(n_args):
args.append(*struct.unpack(">l", _read_exactly(self.port, 4)))
r = rpc_map[rpc_num](*args)
if r is None:
r = 0
_write_exactly(self.port, struct.pack(">l", r))
def serve(self, rpc_map):
while True:
self._wait_sync()
msg = _MsgType(*struct.unpack("b", _read_exactly(self.port, 1)))
if msg == _MsgType.KERNEL_FINISHED:
return
elif msg == _MsgType.RPC_REQUEST:
rpc_num, n_args = struct.unpack(">hb",
_read_exactly(self.port, 3))
args = []
for i in range(n_args):
args.append(*struct.unpack(">l",
_read_exactly(self.port, 4)))
r = rpc_map[rpc_num](*args)
if r is None:
r = 0
_write_exactly(self.port, struct.pack(">l", r))

28
artiq/devices/dds_core.py
View File

@ -1,20 +1,22 @@
from artiq.language.core import *
from artiq.language.units import *
class DDS(AutoContext):
parameters = "dds_sysclk reg_channel rtio_channel"
parameters = "dds_sysclk reg_channel rtio_channel"
def build(self):
self._previous_frequency = 0*MHz
def build(self):
self._previous_frequency = 0*MHz
kernel_attr = "_previous_frequency"
kernel_attr = "_previous_frequency"
@kernel
def pulse(self, frequency, duration):
if self._previous_frequency != frequency:
syscall("rtio_sync", self.rtio_channel) # wait until output is off
syscall("dds_program", self.reg_channel, int(2**32*frequency/self.dds_sysclk))
self._previous_frequency = frequency
syscall("rtio_set", now(), self.rtio_channel, 1)
delay(duration)
syscall("rtio_set", now(), self.rtio_channel, 0)
@kernel
def pulse(self, frequency, duration):
if self._previous_frequency != frequency:
syscall("rtio_sync", self.rtio_channel) # wait until output is off
syscall("dds_program", self.reg_channel,
int(2**32*frequency/self.dds_sysclk))
self._previous_frequency = frequency
syscall("rtio_set", now(), self.rtio_channel, 1)
delay(duration)
syscall("rtio_set", now(), self.rtio_channel, 0)

11
artiq/devices/gpio_core.py
View File

@ -1,8 +1,9 @@
from artiq.language.core import *
class GPIOOut(AutoContext):
parameters = "channel"
@kernel
def set(self, level):
syscall("gpio_set", self.channel, level)
class GPIOOut(AutoContext):
parameters = "channel"
@kernel
def set(self, level):
syscall("gpio_set", self.channel, level)

105
artiq/devices/runtime.py
View File

@ -3,70 +3,77 @@ from llvm import target as lt
from artiq.compiler import ir_values
lt.initialize_all()
_syscalls = {
"rpc": "i+:i",
"gpio_set": "ii:n",
"rtio_set": "Iii:n",
"rtio_sync": "i:n",
"dds_program": "ii:n",
"rpc": "i+:i",
"gpio_set": "ii:n",
"rtio_set": "Iii:n",
"rtio_sync": "i:n",
"dds_program": "ii:n",
}
_chr_to_type = {
"n": lambda: lc.Type.void(),
"i": lambda: lc.Type.int(32),
"I": lambda: lc.Type.int(64)
"n": lambda: lc.Type.void(),
"i": lambda: lc.Type.int(32),
"I": lambda: lc.Type.int(64)
}
_chr_to_value = {
"n": lambda: ir_values.VNone(),
"i": lambda: ir_values.VInt(),
"I": lambda: ir_values.VInt(64)
"n": lambda: ir_values.VNone(),
"i": lambda: ir_values.VInt(),
"I": lambda: ir_values.VInt(64)
}
def _str_to_functype(s):
assert(s[-2] == ":")
type_ret = _chr_to_type[s[-1]]()
var_arg_fixcount = None
type_args = []
for n, c in enumerate(s[:-2]):
if c == "+":
type_args.append(lc.Type.int())
var_arg_fixcount = n
else:
type_args.append(_chr_to_type[c]())
return var_arg_fixcount, lc.Type.function(type_ret, type_args, var_arg=var_arg_fixcount is not None)
def _str_to_functype(s):
assert(s[-2] == ":")
type_ret = _chr_to_type[s[-1]]()
var_arg_fixcount = None
type_args = []
for n, c in enumerate(s[:-2]):
if c == "+":
type_args.append(lc.Type.int())
var_arg_fixcount = n
else:
type_args.append(_chr_to_type[c]())
return (var_arg_fixcount,
lc.Type.function(type_ret, type_args,
var_arg=var_arg_fixcount is not None))
class LinkInterface:
def init_module(self, module):
self.module = module
self.var_arg_fixcount = dict()
for func_name, func_type_str in _syscalls.items():
var_arg_fixcount, func_type = _str_to_functype(func_type_str)
if var_arg_fixcount is not None:
self.var_arg_fixcount[func_name] = var_arg_fixcount
self.module.add_function(func_type, "__syscall_"+func_name)
def init_module(self, module):
self.module = module
self.var_arg_fixcount = dict()
for func_name, func_type_str in _syscalls.items():
var_arg_fixcount, func_type = _str_to_functype(func_type_str)
if var_arg_fixcount is not None:
self.var_arg_fixcount[func_name] = var_arg_fixcount
self.module.add_function(func_type, "__syscall_"+func_name)
def syscall(self, syscall_name, args, builder):
r = _chr_to_value[_syscalls[syscall_name][-1]]()
if builder is not None:
args = [arg.get_ssa_value(builder) for arg in args]
if syscall_name in self.var_arg_fixcount:
fixcount = self.var_arg_fixcount[syscall_name]
args = args[:fixcount] \
+ [lc.Constant.int(lc.Type.int(), len(args) - fixcount)] \
+ args[fixcount:]
llvm_function = self.module.get_function_named(
"__syscall_" + syscall_name)
r.set_ssa_value(builder, builder.call(llvm_function, args))
return r
def syscall(self, syscall_name, args, builder):
r = _chr_to_value[_syscalls[syscall_name][-1]]()
if builder is not None:
args = [arg.get_ssa_value(builder) for arg in args]
if syscall_name in self.var_arg_fixcount:
fixcount = self.var_arg_fixcount[syscall_name]
args = args[:fixcount] \
+ [lc.Constant.int(lc.Type.int(), len(args) - fixcount)] \
+ args[fixcount:]
llvm_function = self.module.get_function_named("__syscall_"+syscall_name)
r.set_ssa_value(builder, builder.call(llvm_function, args))
return r
class Environment(LinkInterface):
def __init__(self, ref_period):
self.ref_period = ref_period
self.initial_time = 2000
def __init__(self, ref_period):
self.ref_period = ref_period
self.initial_time = 2000
def emit_object(self):
tm = lt.TargetMachine.new(triple="or1k", cpu="generic")
return tm.emit_object(self.module)
def emit_object(self):
tm = lt.TargetMachine.new(triple="or1k", cpu="generic")
return tm.emit_object(self.module)

15
artiq/devices/ttl_core.py
View File

@ -1,10 +1,11 @@
from artiq.language.core import *
class TTLOut(AutoContext):
parameters = "channel"
@kernel
def pulse(self, duration):
syscall("rtio_set", now(), self.channel, 1)
delay(duration)
syscall("rtio_set", now(), self.channel, 0)
class TTLOut(AutoContext):
parameters = "channel"
@kernel
def pulse(self, duration):
syscall("rtio_set", now(), self.channel, 1)
delay(duration)
syscall("rtio_set", now(), self.channel, 0)

209
artiq/language/core.py
View File

@ -3,150 +3,169 @@ from fractions import Fraction
from artiq.language import units
class int64(int):
pass
pass
def _make_int64_op_method(int_method):
def method(self, *args):
r = int_method(self, *args)
if isinstance(r, int):
r = int64(r)
return r
return method
def method(self, *args):
r = int_method(self, *args)
if isinstance(r, int):
r = int64(r)
return r
return method
for _op_name in (
"neg", "pos", "abs", "invert", "round",
"add", "radd", "sub", "rsub", "mul", "rmul", "pow", "rpow",
"lshift", "rlshift", "rshift", "rrshift",
"and", "rand", "xor", "rxor", "or", "ror",
"floordiv", "rfloordiv", "mod", "rmod"):
method_name = "__" + _op_name + "__"
orig_method = getattr(int, method_name)
setattr(int64, method_name, _make_int64_op_method(orig_method))
for _op_name in ("neg", "pos", "abs", "invert", "round",
"add", "radd", "sub", "rsub", "mul", "rmul", "pow", "rpow",
"lshift", "rlshift", "rshift", "rrshift",
"and", "rand", "xor", "rxor", "or", "ror",
"floordiv", "rfloordiv", "mod", "rmod"):
method_name = "__" + _op_name + "__"
orig_method = getattr(int, method_name)
setattr(int64, method_name, _make_int64_op_method(orig_method))
for _op_name in ("add", "sub", "mul", "floordiv", "mod",
"pow", "lshift", "rshift", "lshift",
"and", "xor", "or"):
op_method = getattr(int, "__" + _op_name + "__")
setattr(int64, "__i" + _op_name + "__", _make_int64_op_method(op_method))
for _op_name in (
"add", "sub", "mul", "floordiv", "mod",
"pow", "lshift", "rshift", "lshift",
"and", "xor", "or"):
op_method = getattr(int, "__" + _op_name + "__")
setattr(int64, "__i" + _op_name + "__", _make_int64_op_method(op_method))
def round64(x):
return int64(round(x))
return int64(round(x))
def _make_kernel_ro(value):
return isinstance(value, (bool, int, int64, float, Fraction, units.Quantity))
return isinstance(
value, (bool, int, int64, float, Fraction, units.Quantity))
class AutoContext:
parameters = ""
implicit_core = True
parameters = ""
implicit_core = True
def __init__(self, mvs=None, **kwargs):
kernel_attr_ro = []
def __init__(self, mvs=None, **kwargs):
kernel_attr_ro = []
self.mvs = mvs
for k, v in kwargs.items():
setattr(self, k, v)
if _make_kernel_ro(v):
kernel_attr_ro.append(k)
self.mvs = mvs
for k, v in kwargs.items():
setattr(self, k, v)
if _make_kernel_ro(v):
kernel_attr_ro.append(k)
parameters = self.parameters.split()
if self.implicit_core:
parameters.append("core")
for parameter in parameters:
try:
value = getattr(self, parameter)
except AttributeError:
value = self.mvs.get_missing_value(parameter)
setattr(self, parameter, value)
if _make_kernel_ro(value):
kernel_attr_ro.append(parameter)
self.kernel_attr_ro = " ".join(kernel_attr_ro)
parameters = self.parameters.split()
if self.implicit_core:
parameters.append("core")
for parameter in parameters:
try:
value = getattr(self, parameter)
except AttributeError:
value = self.mvs.get_missing_value(parameter)
setattr(self, parameter, value)
if _make_kernel_ro(value):
kernel_attr_ro.append(parameter)
self.build()
self.kernel_attr_ro = " ".join(kernel_attr_ro)
def get_missing_value(self, parameter):
try:
return getattr(self, parameter)
except AttributeError:
return self.mvs.get_missing_value(parameter)
self.build()
def get_missing_value(self, parameter):
try:
return getattr(self, parameter)
except AttributeError:
return self.mvs.get_missing_value(parameter)
def build(self):
""" Overload this function to add sub-experiments"""
pass
def build(self):
""" Overload this function to add sub-experiments"""
pass
KernelFunctionInfo = namedtuple("KernelFunctionInfo", "core_name k_function")
def kernel(arg):
if isinstance(arg, str):
def real_decorator(k_function):
def run_on_core(exp, *k_args, **k_kwargs):
getattr(exp, arg).run(k_function, ((exp,) + k_args), k_kwargs)
run_on_core.k_function_info = KernelFunctionInfo(core_name=arg, k_function=k_function)
return run_on_core
return real_decorator
else:
def run_on_core(exp, *k_args, **k_kwargs):
exp.core.run(arg, ((exp,) + k_args), k_kwargs)
run_on_core.k_function_info = KernelFunctionInfo(core_name="core", k_function=arg)
return run_on_core
if isinstance(arg, str):
def real_decorator(k_function):
def run_on_core(exp, *k_args, **k_kwargs):
getattr(exp, arg).run(k_function, ((exp,) + k_args), k_kwargs)
run_on_core.k_function_info = KernelFunctionInfo(
core_name=arg, k_function=k_function)
return run_on_core
return real_decorator
else:
def run_on_core(exp, *k_args, **k_kwargs):
exp.core.run(arg, ((exp,) + k_args), k_kwargs)
run_on_core.k_function_info = KernelFunctionInfo(
core_name="core", k_function=arg)
return run_on_core
class _DummyTimeManager:
def _not_implemented(self, *args, **kwargs):
raise NotImplementedError("Attempted to interpret kernel without a time manager")
def _not_implemented(self, *args, **kwargs):
raise NotImplementedError(
"Attempted to interpret kernel without a time manager")
enter_sequential = _not_implemented
enter_parallel = _not_implemented
exit = _not_implemented
take_time = _not_implemented
get_time = _not_implemented
set_time = _not_implemented
enter_sequential = _not_implemented
enter_parallel = _not_implemented
exit = _not_implemented
take_time = _not_implemented
get_time = _not_implemented
set_time = _not_implemented
_time_manager = _DummyTimeManager()
def set_time_manager(time_manager):
global _time_manager
_time_manager = time_manager
global _time_manager
_time_manager = time_manager
class _DummySyscallManager:
def do(self, *args):
raise NotImplementedError("Attempted to interpret kernel without a syscall manager")
def do(self, *args):
raise NotImplementedError(
"Attempted to interpret kernel without a syscall manager")
_syscall_manager = _DummySyscallManager()
def set_syscall_manager(syscall_manager):
global _syscall_manager
_syscall_manager = syscall_manager
global _syscall_manager
_syscall_manager = syscall_manager
# global namespace for kernels
kernel_globals = "sequential", "parallel", "delay", "now", "at", "syscall"
class _Sequential:
def __enter__(self):
_time_manager.enter_sequential()
def __exit__(self, type, value, traceback):
_time_manager.exit()
class _Sequential:
def __enter__(self):
_time_manager.enter_sequential()
def __exit__(self, type, value, traceback):
_time_manager.exit()
sequential = _Sequential()
class _Parallel:
def __enter__(self):
_time_manager.enter_parallel()
def __exit__(self, type, value, traceback):
_time_manager.exit()
class _Parallel:
def __enter__(self):
_time_manager.enter_parallel()
def __exit__(self, type, value, traceback):
_time_manager.exit()
parallel = _Parallel()
def delay(duration):
_time_manager.take_time(duration)
_time_manager.take_time(duration)
def now():
return _time_manager.get_time()
return _time_manager.get_time()
def at(time):
_time_manager.set_time(time)
_time_manager.set_time(time)
def syscall(*args):
return _syscall_manager.do(*args)
return _syscall_manager.do(*args)

217
artiq/language/units.py
View File

@ -1,122 +1,139 @@
from collections import namedtuple
from fractions import Fraction
_prefixes_str = "pnum_kMG"
_smallest_prefix = Fraction(1, 10**12)
Unit = namedtuple("Unit", "name")
class DimensionError(Exception):
pass
pass
class Quantity:
def __init__(self, amount, unit):
self.amount = amount
self.unit = unit
def __init__(self, amount, unit):
self.amount = amount
self.unit = unit
def __repr__(self):
r_amount = self.amount
if isinstance(r_amount, int) or isinstance(r_amount, Fraction):
r_prefix = 0
r_amount = r_amount/_smallest_prefix
if r_amount:
numerator = r_amount.numerator
while numerator % 1000 == 0 and r_prefix < len(_prefixes_str):
numerator /= 1000
r_amount /= 1000
r_prefix += 1
prefix_str = _prefixes_str[r_prefix]
if prefix_str == "_":
prefix_str = ""
return str(r_amount) + " " + prefix_str + self.unit.name
else:
return str(r_amount) + " " + self.unit.name
def __repr__(self):
r_amount = self.amount
if isinstance(r_amount, int) or isinstance(r_amount, Fraction):
r_prefix = 0
r_amount = r_amount/_smallest_prefix
if r_amount:
numerator = r_amount.numerator
while numerator % 1000 == 0 and r_prefix < len(_prefixes_str):
numerator /= 1000
r_amount /= 1000
r_prefix += 1
prefix_str = _prefixes_str[r_prefix]
if prefix_str == "_":
prefix_str = ""
return str(r_amount) + " " + prefix_str + self.unit.name
else:
return str(r_amount) + " " + self.unit.name
def __mul__(self, other):
if isinstance(other, Quantity):
return NotImplemented
return Quantity(self.amount*other, self.unit)
def __rmul__(self, other):
if isinstance(other, Quantity):
return NotImplemented
return Quantity(other*self.amount, self.unit)
def __truediv__(self, other):
if isinstance(other, Quantity):
if other.unit == self.unit:
return self.amount/other.amount
else:
return NotImplemented
else:
return Quantity(self.amount/other, self.unit)
def __floordiv__(self, other):
if isinstance(other, Quantity):
if other.unit == self.unit:
return self.amount//other.amount
else:
return NotImplemented
else:
return Quantity(self.amount//other, self.unit)
# mul/div
def __mul__(self, other):
if isinstance(other, Quantity):
return NotImplemented
return Quantity(self.amount*other, self.unit)
def __neg__(self):
return Quantity(-self.amount, self.unit)
def __rmul__(self, other):
if isinstance(other, Quantity):
return NotImplemented
return Quantity(other*self.amount, self.unit)
def __add__(self, other):
if self.unit != other.unit:
raise DimensionError
return Quantity(self.amount + other.amount, self.unit)
def __radd__(self, other):
if self.unit != other.unit:
raise DimensionError
return Quantity(other.amount + self.amount, self.unit)
def __sub__(self, other):
if self.unit != other.unit:
raise DimensionError
return Quantity(self.amount - other.amount, self.unit)
def __rsub__(self, other):
if self.unit != other.unit:
raise DimensionError
return Quantity(other.amount - self.amount, self.unit)
def __truediv__(self, other):
if isinstance(other, Quantity):
if other.unit == self.unit:
return self.amount/other.amount
else:
return NotImplemented
else:
return Quantity(self.amount/other, self.unit)
def __lt__(self, other):
if self.unit != other.unit:
raise DimensionError
return self.amount < other.amount
def __le__(self, other):
if self.unit != other.unit:
raise DimensionError
return self.amount <= other.amount
def __eq__(self, other):
if self.unit != other.unit:
raise DimensionError
return self.amount == other.amount
def __ne__(self, other):
if self.unit != other.unit:
raise DimensionError
return self.amount != other.amount
def __gt__(self, other):
if self.unit != other.unit:
raise DimensionError
return self.amount > other.amount
def __ge__(self, other):
if self.unit != other.unit:
raise DimensionError
return self.amount >= other.amount
def __floordiv__(self, other):
if isinstance(other, Quantity):
if other.unit == self.unit:
return self.amount//other.amount
else:
return NotImplemented
else:
return Quantity(self.amount//other, self.unit)
# unary ops
def __neg__(self):
return Quantity(-self.amount, self.unit)
def __pos__(self):
return Quantity(self.amount, self.unit)
# add/sub
def __add__(self, other):
if self.unit != other.unit:
raise DimensionError
return Quantity(self.amount + other.amount, self.unit)
def __radd__(self, other):
if self.unit != other.unit:
raise DimensionError
return Quantity(other.amount + self.amount, self.unit)
def __sub__(self, other):
if self.unit != other.unit:
raise DimensionError
return Quantity(self.amount - other.amount, self.unit)
def __rsub__(self, other):
if self.unit != other.unit:
raise DimensionError
return Quantity(other.amount - self.amount, self.unit)
# comparisons
def __lt__(self, other):
if self.unit != other.unit:
raise DimensionError
return self.amount < other.amount
def __le__(self, other):
if self.unit != other.unit:
raise DimensionError
return self.amount <= other.amount
def __eq__(self, other):
if self.unit != other.unit:
raise DimensionError
return self.amount == other.amount
def __ne__(self, other):
if self.unit != other.unit:
raise DimensionError
return self.amount != other.amount
def __gt__(self, other):
if self.unit != other.unit:
raise DimensionError
return self.amount > other.amount
def __ge__(self, other):
if self.unit != other.unit:
raise DimensionError
return self.amount >= other.amount
def check_unit(value, unit):
if not isinstance(value, Quantity) or value.unit != unit:
raise DimensionError
return value.amount
def _register_unit(name, prefixes):
unit = Unit(name)
globals()[name+"_unit"] = unit
amount = _smallest_prefix
for prefix in _prefixes_str:
if prefix in prefixes:
quantity = Quantity(amount, unit)
full_name = prefix + name if prefix != "_" else name
globals()[full_name] = quantity
amount *= 1000
unit = Unit(name)
globals()[name+"_unit"] = unit
amount = _smallest_prefix
for prefix in _prefixes_str:
if prefix in prefixes:
quantity = Quantity(amount, unit)
full_name = prefix + name if prefix != "_" else name
globals()[full_name] = quantity
amount *= 1000
_register_unit("s", "pnum_")
_register_unit("Hz", "_kMG")

52
artiq/sim/devices.py
View File

@ -4,39 +4,43 @@ from artiq.language.core import AutoContext, delay
from artiq.language import units
from artiq.sim import time
class Core:
def run(self, k_function, k_args, k_kwargs):
return k_function(*k_args, **k_kwargs)
def run(self, k_function, k_args, k_kwargs):
return k_function(*k_args, **k_kwargs)
class Input(AutoContext):
parameters = "name"
implicit_core = False
parameters = "name"
implicit_core = False
def build(self):
self.prng = Random()
def build(self):
self.prng = Random()
def wait_edge(self):
duration = self.prng.randrange(0, 20)*units.ms
time.manager.event(("wait_edge", self.name, duration))
delay(duration)
def wait_edge(self):
duration = self.prng.randrange(0, 20)*units.ms
time.manager.event(("wait_edge", self.name, duration))
delay(duration)
def count_gate(self, duration):
result = self.prng.randrange(0, 100)
time.manager.event(("count_gate", self.name, duration, result))
delay(duration)
return result
def count_gate(self, duration):
result = self.prng.randrange(0, 100)
time.manager.event(("count_gate", self.name, duration, result))
delay(duration)
return result
class WaveOutput(AutoContext):
parameters = "name"
implicit_core = False
parameters = "name"
implicit_core = False
def pulse(self, frequency, duration):
time.manager.event(("pulse", self.name, frequency, duration))
delay(duration)
def pulse(self, frequency, duration):
time.manager.event(("pulse", self.name, frequency, duration))
delay(duration)
class VoltageOutput(AutoContext):
parameters = "name"
implicit_core = False
parameters = "name"
implicit_core = False
def set(self, value):
time.manager.event(("set_voltage", self.name, value))
def set(self, value):
time.manager.event(("set_voltage", self.name, value))

95
artiq/sim/time.py
View File

@ -3,66 +3,69 @@ from operator import itemgetter
from artiq.language.units import *
from artiq.language import core as core_language
class SequentialTimeContext:
def __init__(self, current_time):
self.current_time = current_time
self.block_duration = 0*s
def take_time(self, amount):
self.current_time += amount
self.block_duration += amount
class SequentialTimeContext:
def __init__(self, current_time):
self.current_time = current_time
self.block_duration = 0*s
def take_time(self, amount):
self.current_time += amount
self.block_duration += amount
class ParallelTimeContext:
def __init__(self, current_time):
self.current_time = current_time
self.block_duration = 0*s
def __init__(self, current_time):
self.current_time = current_time
self.block_duration = 0*s
def take_time(self, amount):
if amount > self.block_duration:
self.block_duration = amount
def take_time(self, amount):
if amount > self.block_duration:
self.block_duration = amount
class Manager:
def __init__(self):
self.stack = [SequentialTimeContext(0*s)]
self.timeline = []
def __init__(self):
self.stack = [SequentialTimeContext(0*s)]
self.timeline = []
def enter_sequential(self):
new_context = SequentialTimeContext(self.get_time())
self.stack.append(new_context)
def enter_sequential(self):
new_context = SequentialTimeContext(self.get_time())
self.stack.append(new_context)
def enter_parallel(self):
new_context = ParallelTimeContext(self.get_time())
self.stack.append(new_context)
def enter_parallel(self):
new_context = ParallelTimeContext(self.get_time())
self.stack.append(new_context)
def exit(self):
old_context = self.stack.pop()
self.take_time(old_context.block_duration)
def exit(self):
old_context = self.stack.pop()
self.take_time(old_context.block_duration)
def take_time(self, duration):
self.stack[-1].take_time(duration)
def take_time(self, duration):
self.stack[-1].take_time(duration)
def get_time(self):
return self.stack[-1].current_time
def get_time(self):
return self.stack[-1].current_time
def set_time(self, t):
dt = t - self.get_time()
if dt < 0*s:
raise ValueError("Attempted to go back in time")
self.take_time(dt)
def set_time(self, t):
dt = t - self.get_time()
if dt < 0*s:
raise ValueError("Attempted to go back in time")
self.take_time(dt)
def event(self, description):
self.timeline.append((self.get_time(), description))
def event(self, description):
self.timeline.append((self.get_time(), description))
def format_timeline(self):
r = ""
prev_time = 0*s
for time, description in sorted(self.timeline, key=itemgetter(0)):
r += "@{:10} (+{:10}) ".format(str(time), str(time-prev_time))
for item in description:
r += "{:16}".format(str(item))
r += "\n"
prev_time = time
return r
def format_timeline(self):
r = ""
prev_time = 0*s
for time, description in sorted(self.timeline, key=itemgetter(0)):
r += "@{:10} (+{:10}) ".format(str(time), str(time-prev_time))
for item in description:
r += "{:16}".format(str(item))
r += "\n"
prev_time = time
return r
manager = Manager()
core_language.set_time_manager(manager)

89
examples/al_spectroscopy.py
View File

@ -1,51 +1,54 @@
from artiq.language.units import *
from artiq.language.core import *
class AluminumSpectroscopy(AutoContext):
parameters = "mains_sync laser_cooling spectroscopy spectroscopy_b state_detection pmt \
spectroscopy_freq photon_limit_low photon_limit_high"
@kernel
def run(self):
state_0_count = 0
for count in range(100):
self.mains_sync.wait_edge()
delay(10*us)
self.laser_cooling.pulse(100*MHz, 100*us)
delay(5*us)
with parallel:
self.spectroscopy.pulse(self.spectroscopy_freq, 100*us)
with sequential:
delay(50*us)
self.spectroscopy_b.set(200)
delay(5*us)
while True:
delay(5*us)
with parallel:
self.state_detection.pulse(100*MHz, 10*us)
photon_count = self.pmt.count_gate(10*us)
if photon_count < self.photon_limit_low or photon_count > self.photon_limit_high:
break
if photon_count < self.photon_limit_low:
state_0_count += 1
return state_0_count
class AluminumSpectroscopy(AutoContext):
parameters = "mains_sync laser_cooling spectroscopy spectroscopy_b state_detection pmt \
spectroscopy_freq photon_limit_low photon_limit_high"
@kernel
def run(self):
state_0_count = 0
for count in range(100):
self.mains_sync.wait_edge()
delay(10*us)
self.laser_cooling.pulse(100*MHz, 100*us)
delay(5*us)
with parallel:
self.spectroscopy.pulse(self.spectroscopy_freq, 100*us)
with sequential:
delay(50*us)
self.spectroscopy_b.set(200)
delay(5*us)
while True:
delay(5*us)
with parallel:
self.state_detection.pulse(100*MHz, 10*us)
photon_count = self.pmt.count_gate(10*us)
if (photon_count < self.photon_limit_low
or photon_count > self.photon_limit_high):
break
if photon_count < self.photon_limit_low:
state_0_count += 1
return state_0_count
if __name__ == "__main__":
from artiq.sim import devices as sd
from artiq.sim import time
from artiq.sim import devices as sd
from artiq.sim import time
exp = AluminumSpectroscopy(
core=sd.Core(),
mains_sync=sd.Input(name="mains_sync"),
laser_cooling=sd.WaveOutput(name="laser_cooling"),
spectroscopy=sd.WaveOutput(name="spectroscopy"),
spectroscopy_b=sd.VoltageOutput(name="spectroscopy_b"),
state_detection=sd.WaveOutput(name="state_detection"),
pmt=sd.Input(name="pmt"),
exp = AluminumSpectroscopy(
core=sd.Core(),
mains_sync=sd.Input(name="mains_sync"),
laser_cooling=sd.WaveOutput(name="laser_cooling"),
spectroscopy=sd.WaveOutput(name="spectroscopy"),
spectroscopy_b=sd.VoltageOutput(name="spectroscopy_b"),
state_detection=sd.WaveOutput(name="state_detection"),
pmt=sd.Input(name="pmt"),
spectroscopy_freq=432*MHz,
photon_limit_low=10,
photon_limit_high=15
)
exp.run()
print(time.manager.format_timeline())
spectroscopy_freq=432*MHz,
photon_limit_low=10,
photon_limit_high=15
)
exp.run()
print(time.manager.format_timeline())

65
examples/compiler_test.py
View File

@ -1,41 +1,48 @@
from artiq.language.units import *
from artiq.language.core import *
my_range = range
class CompilerTest(AutoContext):
parameters = "a b A B"
parameters = "a b A B"
def print_done(self):
print("Done!")
def print_done(self):
print("Done!")
def set_some_slowdev(self, n):
print("Slow device setting: {}".format(n))
def set_some_slowdev(self, n):
print("Slow device setting: {}".format(n))
@kernel
def run(self, n, t2):
for i in my_range(n):
self.set_some_slowdev(i)
delay(100*ms)
with parallel:
with sequential:
for j in my_range(3):
self.a.pulse((j+1)*100*MHz, 20*us)
self.b.pulse(100*MHz, t2)
with sequential:
self.A.pulse(100*MHz, 10*us)
self.B.pulse(100*MHz, t2)
self.print_done()
@kernel
def run(self, n, t2):
for i in my_range(n):
self.set_some_slowdev(i)
delay(100*ms)
with parallel:
with sequential:
for j in my_range(3):
self.a.pulse((j+1)*100*MHz, 20*us)
self.b.pulse(100*MHz, t2)
with sequential:
self.A.pulse(100*MHz, 10*us)
self.B.pulse(100*MHz, t2)
self.print_done()
if __name__ == "__main__":
from artiq.devices import corecom_dummy, core, dds_core
from artiq.devices import corecom_dummy, core, dds_core
coredev = core.Core(corecom_dummy.CoreCom())
exp = CompilerTest(
core=coredev,
a=dds_core.DDS(core=coredev, dds_sysclk=1*GHz, reg_channel=0, rtio_channel=0),
b=dds_core.DDS(core=coredev, dds_sysclk=1*GHz, reg_channel=1, rtio_channel=1),
A=dds_core.DDS(core=coredev, dds_sysclk=1*GHz, reg_channel=2, rtio_channel=2),
B=dds_core.DDS(core=coredev, dds_sysclk=1*GHz, reg_channel=3, rtio_channel=3)
)
exp.run(3, 100*us)
coredev = core.Core(corecom_dummy.CoreCom())
exp = CompilerTest(
core=coredev,
a=dds_core.DDS(core=coredev, dds_sysclk=1*GHz,
reg_channel=0, rtio_channel=0),
b=dds_core.DDS(core=coredev, dds_sysclk=1*GHz,
reg_channel=1, rtio_channel=1),
A=dds_core.DDS(core=coredev, dds_sysclk=1*GHz,
reg_channel=2, rtio_channel=2),
B=dds_core.DDS(core=coredev, dds_sysclk=1*GHz,
reg_channel=3, rtio_channel=3)
)
exp.run(3, 100*us)

58
examples/coredev_test.py
View File

@ -1,37 +1,39 @@
from artiq.language.core import AutoContext, kernel
from artiq.devices import corecom_serial, core, gpio_core
class CompilerTest(AutoContext):
parameters = "led"
parameters = "led"
def output(self, n):
print("Received: "+str(n))
def output(self, n):
print("Received: "+str(n))
def get_max(self):
return int(input("Maximum: "))
def get_max(self):
return int(input("Maximum: "))
@kernel
def run(self):
self.led.set(1)
x = 1
m = self.get_max()
while x < m:
d = 2
prime = True
while d*d <= x:
if x % d == 0:
prime = False
d += 1
if prime:
self.output(x)
x += 1
self.led.set(0)
@kernel
def run(self):
self.led.set(1)
x = 1
m = self.get_max()
while x < m:
d = 2
prime = True
while d*d <= x:
if x % d == 0:
prime = False
d += 1
if prime:
self.output(x)
x += 1
self.led.set(0)
if __name__ == "__main__":
with corecom_serial.CoreCom() as com:
coredev = core.Core(com)
exp = CompilerTest(
core=coredev,
led=gpio_core.GPIOOut(core=coredev, channel=0)
)
exp.run()
with corecom_serial.CoreCom() as com:
coredev = core.Core(com)
exp = CompilerTest(
core=coredev,
led=gpio_core.GPIOOut(core=coredev, channel=0)
)
exp.run()

66
examples/dds_test.py
View File

@ -2,36 +2,42 @@ from artiq.language.units import *
from artiq.language.core import *
from artiq.devices import corecom_serial, core, dds_core, gpio_core
class DDSTest(AutoContext):
parameters = "a b c d led"
@kernel
def run(self):
i = 0
while i < 10000:
if i & 0x200:
self.led.set(1)
else:
self.led.set(0)
with parallel:
with sequential:
self.a.pulse(100*MHz + 4*i*kHz, 500*us)
self.b.pulse(120*MHz, 500*us)
with sequential:
self.c.pulse(200*MHz, 100*us)
self.d.pulse(250*MHz, 200*us)
i += 1
self.led.set(0)
class DDSTest(AutoContext):
parameters = "a b c d led"
@kernel
def run(self):
i = 0
while i < 10000:
if i & 0x200:
self.led.set(1)
else:
self.led.set(0)
with parallel:
with sequential:
self.a.pulse(100*MHz + 4*i*kHz, 500*us)
self.b.pulse(120*MHz, 500*us)
with sequential:
self.c.pulse(200*MHz, 100*us)
self.d.pulse(250*MHz, 200*us)
i += 1
self.led.set(0)
if __name__ == "__main__":
with corecom_serial.CoreCom() as com:
coredev = core.Core(com)
exp = DDSTest(
core=coredev,
a=dds_core.DDS(core=coredev, dds_sysclk=1*GHz, reg_channel=0, rtio_channel=0),
b=dds_core.DDS(core=coredev, dds_sysclk=1*GHz, reg_channel=1, rtio_channel=1),
c=dds_core.DDS(core=coredev, dds_sysclk=1*GHz, reg_channel=2, rtio_channel=2),
d=dds_core.DDS(core=coredev, dds_sysclk=1*GHz, reg_channel=3, rtio_channel=3),
led=gpio_core.GPIOOut(core=coredev, channel=1)
)
exp.run()
with corecom_serial.CoreCom() as com:
coredev = core.Core(com)
exp = DDSTest(
core=coredev,
a=dds_core.DDS(core=coredev, dds_sysclk=1*GHz,
reg_channel=0, rtio_channel=0),
b=dds_core.DDS(core=coredev, dds_sysclk=1*GHz,
reg_channel=1, rtio_channel=1),
c=dds_core.DDS(core=coredev, dds_sysclk=1*GHz,
reg_channel=2, rtio_channel=2),
d=dds_core.DDS(core=coredev, dds_sysclk=1*GHz,
reg_channel=3, rtio_channel=3),
led=gpio_core.GPIOOut(core=coredev, channel=1)
)
exp.run()

46
examples/simple_simulation.py
View File

@ -1,29 +1,31 @@
from artiq.language.units import *
from artiq.language.core import *
class SimpleSimulation(AutoContext):
parameters = "a b c d"
@kernel
def run(self):
with parallel:
with sequential:
self.a.pulse(100*MHz, 20*us)
self.b.pulse(200*MHz, 20*us)
with sequential:
self.c.pulse(300*MHz, 10*us)
self.d.pulse(400*MHz, 20*us)
class SimpleSimulation(AutoContext):
parameters = "a b c d"
@kernel
def run(self):
with parallel:
with sequential:
self.a.pulse(100*MHz, 20*us)
self.b.pulse(200*MHz, 20*us)
with sequential:
self.c.pulse(300*MHz, 10*us)
self.d.pulse(400*MHz, 20*us)
if __name__ == "__main__":
from artiq.sim import devices as sd
from artiq.sim import time
from artiq.sim import devices as sd
from artiq.sim import time
exp = SimpleSimulation(
core=sd.Core(),
a=sd.WaveOutput(name="a"),
b=sd.WaveOutput(name="b"),
c=sd.WaveOutput(name="c"),
d=sd.WaveOutput(name="d"),
)
exp.run()
print(time.manager.format_timeline())
exp = SimpleSimulation(
core=sd.Core(),
a=sd.WaveOutput(name="a"),
b=sd.WaveOutput(name="b"),
c=sd.WaveOutput(name="c"),
d=sd.WaveOutput(name="d"),
)
exp.run()
print(time.manager.format_timeline())

69
examples/time_test.py
View File

@ -2,45 +2,48 @@ from artiq.language.units import *
from artiq.language.core import *
from artiq.devices import corecom_serial, core
class DummyPulse(AutoContext):
parameters = "name"
parameters = "name"
def print_on(self, t, f):
print("{} ON:{:4} @{}".format(self.name, f, t))
def print_on(self, t, f):
print("{} ON:{:4} @{}".format(self.name, f, t))
def print_off(self, t):
print("{} OFF @{}".format(self.name, t))
def print_off(self, t):
print("{} OFF @{}".format(self.name, t))
@kernel
def pulse(self, f, duration):
self.print_on(int(now()), f)
delay(duration)
self.print_off(int(now()))
@kernel
def pulse(self, f, duration):
self.print_on(int(now()), f)
delay(duration)
self.print_off(int(now()))
class TimeTest(AutoContext):
parameters = "a b c d"
parameters = "a b c d"
@kernel
def run(self):
i = 0
while i < 3:
with parallel:
with sequential:
self.a.pulse(100+i, 20*us)
self.b.pulse(200+i, 20*us)
with sequential:
self.c.pulse(300+i, 10*us)
self.d.pulse(400+i, 20*us)
i += 1
@kernel
def run(self):
i = 0
while i < 3:
with parallel:
with sequential:
self.a.pulse(100+i, 20*us)
self.b.pulse(200+i, 20*us)
with sequential:
self.c.pulse(300+i, 10*us)
self.d.pulse(400+i, 20*us)
i += 1
if __name__ == "__main__":
with corecom_serial.CoreCom() as com:
coredev = core.Core(com)
exp = TimeTest(
core=coredev,
a=DummyPulse(core=coredev, name="a"),
b=DummyPulse(core=coredev, name="b"),
c=DummyPulse(core=coredev, name="c"),
d=DummyPulse(core=coredev, name="d"),
)
exp.run()
with corecom_serial.CoreCom() as com:
coredev = core.Core(com)
exp = TimeTest(
core=coredev,
a=DummyPulse(core=coredev, name="a"),
b=DummyPulse(core=coredev, name="b"),
c=DummyPulse(core=coredev, name="c"),
d=DummyPulse(core=coredev, name="d"),
)
exp.run()

337
soc/artiqlib/ad9858/__init__.py
View File

@ -4,192 +4,197 @@ from migen.bus import wishbone
from migen.bus.transactions import *
from migen.sim.generic import run_simulation
class AD9858(Module):
"""Wishbone interface to the AD9858 DDS chip.
"""Wishbone interface to the AD9858 DDS chip.
Addresses 0-63 map the AD9858 registers.
Data is zero-padded.
Addresses 0-63 map the AD9858 registers.
Data is zero-padded.
Write to address 64 to pulse the FUD signal.
Address 65 is a GPIO register that controls the sel, p and reset signals.
sel is mapped to the lower bits, followed by p and reset.
Write to address 64 to pulse the FUD signal.
Address 65 is a GPIO register that controls the sel, p and reset signals.
sel is mapped to the lower bits, followed by p and reset.
Write timing:
Address is set one cycle before assertion of we_n.
we_n is asserted for one cycle, at the same time as valid data is driven.
Write timing:
Address is set one cycle before assertion of we_n.
we_n is asserted for one cycle, at the same time as valid data is driven.
Read timing:
Address is set one cycle before assertion of rd_n.
rd_n is asserted for 3 cycles.
Data is sampled 2 cycles into the assertion of rd_n.
Read timing:
Address is set one cycle before assertion of rd_n.
rd_n is asserted for 3 cycles.
Data is sampled 2 cycles into the assertion of rd_n.
Design:
All IO pads are registered.
Design:
All IO pads are registered.
LVDS driver/receiver propagation delays are 3.6+4.5 ns max
LVDS state transition delays are 20, 15 ns max
Schmitt trigger delays are 6.4ns max
Round-trip addr A setup (> RX, RD, D to Z), RD prop, D valid (< D
valid), D prop is ~15 + 10 + 20 + 10 = 55ns
"""
def __init__(self, pads, bus=None):
if bus is None:
bus = wishbone.Interface()
self.bus = bus
LVDS driver/receiver propagation delays are 3.6+4.5 ns max
LVDS state transition delays are 20, 15 ns max
Schmitt trigger delays are 6.4ns max
Round-trip addr A setup (> RX, RD, D to Z), RD prop, D valid (< D
valid), D prop is ~15 + 10 + 20 + 10 = 55ns
"""
def __init__(self, pads, bus=None):
if bus is None:
bus = wishbone.Interface()
self.bus = bus
###
# # #
dts = TSTriple(8)
self.specials += dts.get_tristate(pads.d)
dr = Signal(8)
rx = Signal()
self.sync += [
pads.a.eq(bus.adr),
dts.o.eq(bus.dat_w),
dr.eq(dts.i),
dts.oe.eq(~rx)
]
dts = TSTriple(8)
self.specials += dts.get_tristate(pads.d)
dr = Signal(8)
rx = Signal()
self.sync += [
pads.a.eq(bus.adr),
dts.o.eq(bus.dat_w),
dr.eq(dts.i),
dts.oe.eq(~rx)
]
gpio = Signal(flen(pads.sel) + flen(pads.p) + 1)
gpio_load = Signal()
self.sync += If(gpio_load, gpio.eq(bus.dat_w))
self.comb += [
Cat(pads.sel, pads.p).eq(gpio),
pads.rst_n.eq(~gpio[-1]),
]
gpio = Signal(flen(pads.sel) + flen(pads.p) + 1)
gpio_load = Signal()
self.sync += If(gpio_load, gpio.eq(bus.dat_w))
self.comb += [
Cat(pads.sel, pads.p).eq(gpio),
pads.rst_n.eq(~gpio[-1]),
]
bus_r_gpio = Signal()
self.comb += If(bus_r_gpio,
bus.dat_r.eq(gpio)
).Else(
bus.dat_r.eq(dr)
)
bus_r_gpio = Signal()
self.comb += If(bus_r_gpio,
bus.dat_r.eq(gpio)
).Else(
bus.dat_r.eq(dr)
)
fud = Signal()
self.sync += pads.fud_n.eq(~fud)
fud = Signal()
self.sync += pads.fud_n.eq(~fud)
pads.wr_n.reset = 1
pads.rd_n.reset = 1
wr = Signal()
rd = Signal()
self.sync += pads.wr_n.eq(~wr), pads.rd_n.eq(~rd)
pads.wr_n.reset = 1
pads.rd_n.reset = 1
wr = Signal()
rd = Signal()
self.sync += pads.wr_n.eq(~wr), pads.rd_n.eq(~rd)
fsm = FSM("IDLE")
self.submodules += fsm
fsm = FSM("IDLE")
self.submodules += fsm
fsm.act("IDLE",
If(bus.cyc & bus.stb,
If(bus.adr[6],
If(bus.adr[0],
NextState("GPIO")
).Else(
NextState("FUD")
)
).Else(
If(bus.we,
NextState("WRITE")
).Else(
NextState("READ")
)
)
)
)
fsm.act("WRITE",
# 3ns A setup to WR active
wr.eq(1),
NextState("WRITE0")
)
fsm.act("WRITE0",
# 3.5ns D setup to WR inactive
# 0ns D and A hold to WR inactive
bus.ack.eq(1),
NextState("IDLE")
)
fsm.act("READ",
# 15ns D valid to A setup
# 15ns D valid to RD active
rx.eq(1),
rd.eq(1),
NextState("READ0")
)
fsm.act("READ0",
rx.eq(1),
rd.eq(1),
NextState("READ1")
)
fsm.act("READ1",
rx.eq(1),
rd.eq(1),
NextState("READ2")
)
fsm.act("READ2",
rx.eq(1),
rd.eq(1),
NextState("READ3")
)
fsm.act("READ3",
rx.eq(1),
rd.eq(1),
NextState("READ4")
)
fsm.act("READ4",
rx.eq(1),
NextState("READ5")
)
fsm.act("READ5",
# 5ns D three-state to RD inactive
# 10ns A hold to RD inactive
rx.eq(1),
bus.ack.eq(1),
NextState("IDLE")
)
fsm.act("GPIO",
bus.ack.eq(1),
bus_r_gpio.eq(1),
If(bus.we, gpio_load.eq(1)),
NextState("IDLE")
)
fsm.act("FUD",
# 4ns FUD setup to SYNCLK
# 0ns FUD hold to SYNCLK
fud.eq(1),
bus.ack.eq(1),
NextState("IDLE")
)
fsm.act("IDLE",
If(bus.cyc & bus.stb,
If(bus.adr[6],
If(bus.adr[0],
NextState("GPIO")
).Else(
NextState("FUD")
)
).Else(
If(bus.we,
NextState("WRITE")
).Else(
NextState("READ")
)
)
)
)
fsm.act("WRITE",
# 3ns A setup to WR active
wr.eq(1),
NextState("WRITE0")
)
fsm.act("WRITE0",
# 3.5ns D setup to WR inactive
# 0ns D and A hold to WR inactive
bus.ack.eq(1),
NextState("IDLE")
)
fsm.act("READ",
# 15ns D valid to A setup
# 15ns D valid to RD active
rx.eq(1),
rd.eq(1),
NextState("READ0")
)
fsm.act("READ0",
rx.eq(1),
rd.eq(1),
NextState("READ1")
)
fsm.act("READ1",
rx.eq(1),
rd.eq(1),
NextState("READ2")
)
fsm.act("READ2",
rx.eq(1),
rd.eq(1),
NextState("READ3")
)
fsm.act("READ3",
rx.eq(1),
rd.eq(1),
NextState("READ4")
)
fsm.act("READ4",
rx.eq(1),
NextState("READ5")
)
fsm.act("READ5",
# 5ns D three-state to RD inactive
# 10ns A hold to RD inactive
rx.eq(1),
bus.ack.eq(1),
NextState("IDLE")
)
fsm.act("GPIO",
bus.ack.eq(1),
bus_r_gpio.eq(1),
If(bus.we, gpio_load.eq(1)),
NextState("IDLE")
)
fsm.act("FUD",
# 4ns FUD setup to SYNCLK
# 0ns FUD hold to SYNCLK
fud.eq(1),
bus.ack.eq(1),
NextState("IDLE")
)
def _test_gen():
# Test external bus writes
yield TWrite(4, 2)
yield TWrite(5, 3)
yield
# Test external bus reads
yield TRead(14)
yield TRead(15)
yield
# Test FUD
yield TWrite(64, 0)
yield
# Test GPIO
yield TWrite(65, 0xff)
yield
# Test external bus writes
yield TWrite(4, 2)
yield TWrite(5, 3)
yield
# Test external bus reads
yield TRead(14)
yield TRead(15)
yield
# Test FUD
yield TWrite(64, 0)
yield
# Test GPIO
yield TWrite(65, 0xff)
yield
class _TestPads:
def __init__(self):
self.a = Signal(6)
self.d = Signal(8)
self.sel = Signal(5)
self.p = Signal(2)
self.fud_n = Signal()
self.wr_n = Signal()
self.rd_n = Signal()
self.rst_n = Signal()
def __init__(self):
self.a = Signal(6)
self.d = Signal(8)
self.sel = Signal(5)
self.p = Signal(2)
self.fud_n = Signal()
self.wr_n = Signal()
self.rd_n = Signal()
self.rst_n = Signal()
class _TB(Module):
def __init__(self):
pads = _TestPads()
self.submodules.dut = AD9858(pads)
self.submodules.initiator = wishbone.Initiator(_test_gen())
self.submodules.interconnect = wishbone.InterconnectPointToPoint(self.initiator.bus, self.dut.bus)
def __init__(self):
pads = _TestPads()
self.submodules.dut = AD9858(pads)
self.submodules.initiator = wishbone.Initiator(_test_gen())
self.submodules.interconnect = wishbone.InterconnectPointToPoint(self.initiator.bus, self.dut.bus)
if __name__ == "__main__":
run_simulation(_TB(), vcd_name="ad9858.vcd")
run_simulation(_TB(), vcd_name="ad9858.vcd")

307
soc/artiqlib/rtio/core.py
View File

@ -5,179 +5,182 @@ from migen.genlib.cdc import MultiReg
from artiqlib.rtio.rbus import get_fine_ts_width
class _RTIOBankO(Module):
def __init__(self, rbus, counter_width, fine_ts_width, fifo_depth, counter_init):
self.sel = Signal(max=len(rbus))
self.timestamp = Signal(counter_width+fine_ts_width)
self.value = Signal(2)
self.writable = Signal()
self.we = Signal()
self.underflow = Signal()
self.level = Signal(bits_for(fifo_depth))
def __init__(self, rbus, counter_width, fine_ts_width, fifo_depth, counter_init):
self.sel = Signal(max=len(rbus))
self.timestamp = Signal(counter_width+fine_ts_width)
self.value = Signal(2)
self.writable = Signal()
self.we = Signal()
self.underflow = Signal()
self.level = Signal(bits_for(fifo_depth))
###
# # #
counter = Signal(counter_width, reset=counter_init)
self.sync += [
counter.eq(counter + 1),
If(self.we & self.writable,
If(self.timestamp[fine_ts_width:] < counter + 2, self.underflow.eq(1))
)
]
counter = Signal(counter_width, reset=counter_init)
self.sync += [
counter.eq(counter + 1),
If(self.we & self.writable,
If(self.timestamp[fine_ts_width:] < counter + 2, self.underflow.eq(1))
)
]
fifos = []
for n, chif in enumerate(rbus):
fifo = SyncFIFOBuffered([
("timestamp", counter_width+fine_ts_width), ("value", 2)],
fifo_depth)
self.submodules += fifo
fifos.append(fifo)
fifos = []
for n, chif in enumerate(rbus):
fifo = SyncFIFOBuffered([
("timestamp", counter_width+fine_ts_width), ("value", 2)],
fifo_depth)
self.submodules += fifo
fifos.append(fifo)
# FIFO write
self.comb += [
fifo.din.timestamp.eq(self.timestamp),
fifo.din.value.eq(self.value),
fifo.we.eq(self.we & (self.sel == n))
]
# FIFO write
self.comb += [
fifo.din.timestamp.eq(self.timestamp),
fifo.din.value.eq(self.value),
fifo.we.eq(self.we & (self.sel == n))
]
# FIFO read
self.comb += [
chif.o_stb.eq(fifo.readable &
(fifo.dout.timestamp[fine_ts_width:] == counter)),
chif.o_value.eq(fifo.dout.value),
fifo.re.eq(chif.o_stb)
]
if fine_ts_width:
self.comb += chif.o_fine_ts.eq(fifo.dout.timestamp[:fine_ts_width])
# FIFO read
self.comb += [
chif.o_stb.eq(fifo.readable &
(fifo.dout.timestamp[fine_ts_width:] == counter)),
chif.o_value.eq(fifo.dout.value),
fifo.re.eq(chif.o_stb)
]
if fine_ts_width:
self.comb += chif.o_fine_ts.eq(fifo.dout.timestamp[:fine_ts_width])
selfifo = Array(fifos)[self.sel]
self.comb += self.writable.eq(selfifo.writable), self.level.eq(selfifo.level)
selfifo = Array(fifos)[self.sel]
self.comb += self.writable.eq(selfifo.writable), self.level.eq(selfifo.level)
class _RTIOBankI(Module):
def __init__(self, rbus, counter_width, fine_ts_width, fifo_depth):
self.sel = Signal(max=len(rbus))
self.timestamp = Signal(counter_width+fine_ts_width)
self.value = Signal()
self.readable = Signal()
self.re = Signal()
self.overflow = Signal()
def __init__(self, rbus, counter_width, fine_ts_width, fifo_depth):
self.sel = Signal(max=len(rbus))
self.timestamp = Signal(counter_width+fine_ts_width)
self.value = Signal()
self.readable = Signal()
self.re = Signal()
self.overflow = Signal()
###
###
counter = Signal(counter_width)
self.sync += counter.eq(counter + 1)
counter = Signal(counter_width)
self.sync += counter.eq(counter + 1)
timestamps = []
values = []
readables = []
overflows = []
for n, chif in enumerate(rbus):
if hasattr(chif, "oe"):
sensitivity = Signal(2)
self.sync += If(~chif.oe & chif.o_stb,
sensitivity.eq(chif.o_value))
timestamps = []
values = []
readables = []
overflows = []
for n, chif in enumerate(rbus):
if hasattr(chif, "oe"):
sensitivity = Signal(2)
self.sync += If(~chif.oe & chif.o_stb,
sensitivity.eq(chif.o_value))
fifo = SyncFIFOBuffered([
("timestamp", counter_width+fine_ts_width), ("value", 1)],
fifo_depth)
self.submodules += fifo
# FIFO write
if fine_ts_width:
full_ts = Cat(chif.i_fine_ts, counter)
else:
full_ts = counter
self.comb += [
fifo.din.timestamp.eq(full_ts),
fifo.din.value.eq(chif.i_value),
fifo.we.eq(~chif.oe & chif.i_stb &
((chif.i_value & sensitivity[0]) | (~chif.i_value & sensitivity[1])))
]
fifo = SyncFIFOBuffered([
("timestamp", counter_width+fine_ts_width), ("value", 1)],
fifo_depth)
self.submodules += fifo
# FIFO write
if fine_ts_width:
full_ts = Cat(chif.i_fine_ts, counter)
else:
full_ts = counter
self.comb += [
fifo.din.timestamp.eq(full_ts),
fifo.din.value.eq(chif.i_value),
fifo.we.eq(~chif.oe & chif.i_stb &
((chif.i_value & sensitivity[0]) | (~chif.i_value & sensitivity[1])))
]
# FIFO read
timestamps.append(fifo.dout.timestamp)
values.append(fifo.dout.value)
readables.append(fifo.readable)
self.comb += fifo.re.eq(self.re & (self.sel == n))
overflow = Signal()
self.sync += If(fifo.we & ~fifo.writable, overflow.eq(1))
overflows.append(overflow)
else:
timestamps.append(0)
values.append(0)
readables.append(0)
overflows.append(0)
# FIFO read
timestamps.append(fifo.dout.timestamp)
values.append(fifo.dout.value)
readables.append(fifo.readable)
self.comb += fifo.re.eq(self.re & (self.sel == n))
overflow = Signal()
self.sync += If(fifo.we & ~fifo.writable, overflow.eq(1))
overflows.append(overflow)
else:
timestamps.append(0)
values.append(0)
readables.append(0)
overflows.append(0)
self.comb += [
self.timestamp.eq(Array(timestamps)[self.sel]),
self.value.eq(Array(values)[self.sel]),
self.readable.eq(Array(readables)[self.sel]),
self.overflow.eq(Array(overflows)[self.sel])
]
self.comb += [
self.timestamp.eq(Array(timestamps)[self.sel]),
self.value.eq(Array(values)[self.sel]),
self.readable.eq(Array(readables)[self.sel]),
self.overflow.eq(Array(overflows)[self.sel])
]
class RTIO(Module, AutoCSR):
def __init__(self, phy, counter_width=32, ofifo_depth=8, ififo_depth=8):
fine_ts_width = get_fine_ts_width(phy.rbus)
def __init__(self, phy, counter_width=32, ofifo_depth=8, ififo_depth=8):
fine_ts_width = get_fine_ts_width(phy.rbus)
# Submodules
self.submodules.bank_o = InsertReset(_RTIOBankO(phy.rbus,
counter_width, fine_ts_width, ofifo_depth,
phy.loopback_latency))
self.submodules.bank_i = InsertReset(_RTIOBankI(phy.rbus,
counter_width, fine_ts_width, ofifo_depth))
# Submodules
self.submodules.bank_o = InsertReset(_RTIOBankO(phy.rbus,
counter_width, fine_ts_width, ofifo_depth,
phy.loopback_latency))
self.submodules.bank_i = InsertReset(_RTIOBankI(phy.rbus,
counter_width, fine_ts_width, ofifo_depth))
# CSRs
self._r_reset = CSRStorage(reset=1)
self._r_chan_sel = CSRStorage(flen(self.bank_o.sel))
self._r_oe = CSR()
# CSRs
self._r_reset = CSRStorage(reset=1)
self._r_chan_sel = CSRStorage(flen(self.bank_o.sel))
self._r_oe = CSR()
self._r_o_timestamp = CSRStorage(counter_width+fine_ts_width)
self._r_o_value = CSRStorage(2)
self._r_o_writable = CSRStatus()
self._r_o_we = CSR()
self._r_o_underflow = CSRStatus()
self._r_o_level = CSRStatus(bits_for(ofifo_depth))
self._r_o_timestamp = CSRStorage(counter_width+fine_ts_width)
self._r_o_value = CSRStorage(2)
self._r_o_writable = CSRStatus()
self._r_o_we = CSR()
self._r_o_underflow = CSRStatus()
self._r_o_level = CSRStatus(bits_for(ofifo_depth))
self._r_i_timestamp = CSRStatus(counter_width+fine_ts_width)
self._r_i_value = CSRStatus()
self._r_i_readable = CSRStatus()
self._r_i_re = CSR()
self._r_i_overflow = CSRStatus()
self._r_i_timestamp = CSRStatus(counter_width+fine_ts_width)
self._r_i_value = CSRStatus()
self._r_i_readable = CSRStatus()
self._r_i_re = CSR()
self._r_i_overflow = CSRStatus()
# OE
oes = []
for n, chif in enumerate(phy.rbus):
if hasattr(chif, "oe"):
self.sync += \
If(self._r_oe.re & (self._r_chan_sel.storage == n),
chif.oe.eq(self._r_oe.r)
)
oes.append(chif.oe)
else:
oes.append(1)
self.comb += self._r_oe.w.eq(Array(oes)[self._r_chan_sel.storage])
# OE
oes = []
for n, chif in enumerate(phy.rbus):
if hasattr(chif, "oe"):
self.sync += \
If(self._r_oe.re & (self._r_chan_sel.storage == n),
chif.oe.eq(self._r_oe.r)
)
oes.append(chif.oe)
else:
oes.append(1)
self.comb += self._r_oe.w.eq(Array(oes)[self._r_chan_sel.storage])
# Output/Gate
self.comb += [
self.bank_o.reset.eq(self._r_reset.storage),
self.bank_o.sel.eq(self._r_chan_sel.storage),
self.bank_o.timestamp.eq(self._r_o_timestamp.storage),
self.bank_o.value.eq(self._r_o_value.storage),
self._r_o_writable.status.eq(self.bank_o.writable),
self.bank_o.we.eq(self._r_o_we.re),
self._r_o_underflow.status.eq(self.bank_o.underflow),
self._r_o_level.status.eq(self.bank_o.level)
]
# Output/Gate
self.comb += [
self.bank_o.reset.eq(self._r_reset.storage),
self.bank_o.sel.eq(self._r_chan_sel.storage),
self.bank_o.timestamp.eq(self._r_o_timestamp.storage),
self.bank_o.value.eq(self._r_o_value.storage),
self._r_o_writable.status.eq(self.bank_o.writable),
self.bank_o.we.eq(self._r_o_we.re),
self._r_o_underflow.status.eq(self.bank_o.underflow),
self._r_o_level.status.eq(self.bank_o.level)
]
# Input
self.comb += [
self.bank_i.reset.eq(self._r_reset.storage),
self.bank_i.sel.eq(self._r_chan_sel.storage),
self._r_i_timestamp.status.eq(self.bank_i.timestamp),
self._r_i_value.status.eq(self.bank_i.value),
self._r_i_readable.status.eq(self.bank_i.readable),
self.bank_i.re.eq(self._r_i_re.re),
self._r_i_overflow.status.eq(self.bank_i.overflow)
]
# Input
self.comb += [
self.bank_i.reset.eq(self._r_reset.storage),
self.bank_i.sel.eq(self._r_chan_sel.storage),
self._r_i_timestamp.status.eq(self.bank_i.timestamp),
self._r_i_value.status.eq(self.bank_i.value),
self._r_i_readable.status.eq(self.bank_i.readable),
self.bank_i.re.eq(self._r_i_re.re),
self._r_i_overflow.status.eq(self.bank_i.overflow)
]

41
soc/artiqlib/rtio/phy.py
View File

@ -3,27 +3,28 @@ from migen.genlib.cdc import MultiReg
from artiqlib.rtio.rbus import create_rbus
class SimplePHY(Module):
def __init__(self, pads, output_only_pads=set()):
self.rbus = create_rbus(0, pads, output_only_pads)
self.loopback_latency = 3
def __init__(self, pads, output_only_pads=set()):
self.rbus = create_rbus(0, pads, output_only_pads)
self.loopback_latency = 3
###
# # #
for pad, chif in zip(pads, self.rbus):
o_pad = Signal()
self.sync += If(chif.o_stb, o_pad.eq(chif.o_value))
if pad in output_only_pads:
self.comb += pad.eq(o_pad)
else:
ts = TSTriple()
i_pad = Signal()
self.sync += ts.oe.eq(chif.oe)
self.comb += ts.o.eq(o_pad)
self.specials += MultiReg(ts.i, i_pad), \
ts.get_tristate(pad)
for pad, chif in zip(pads, self.rbus):
o_pad = Signal()
self.sync += If(chif.o_stb, o_pad.eq(chif.o_value))
if pad in output_only_pads:
self.comb += pad.eq(o_pad)
else:
ts = TSTriple()
i_pad = Signal()
self.sync += ts.oe.eq(chif.oe)
self.comb += ts.o.eq(o_pad)
self.specials += MultiReg(ts.i, i_pad), \
ts.get_tristate(pad)
i_pad_d = Signal()
self.sync += i_pad_d.eq(i_pad)
self.comb += chif.i_stb.eq(i_pad ^ i_pad_d), \
chif.i_value.eq(i_pad)
i_pad_d = Signal()
self.sync += i_pad_d.eq(i_pad)
self.comb += chif.i_stb.eq(i_pad ^ i_pad_d), \
chif.i_value.eq(i_pad)

44
soc/artiqlib/rtio/rbus.py
View File

@ -2,27 +2,27 @@ from migen.fhdl.std import *
from migen.genlib.record import Record
def create_rbus(fine_ts_bits, pads, output_only_pads):
rbus = []
for pad in pads:
layout = [
("o_stb", 1),
("o_value", 2)
]
if fine_ts_bits:
layout.append(("o_fine_ts", fine_ts_bits))
if pad not in output_only_pads:
layout += [
("oe", 1),
("i_stb", 1),
("i_value", 1)
]
if fine_ts_bits:
layout.append(("i_fine_ts", fine_ts_bits))
rbus.append(Record(layout))
return rbus
rbus = []
for pad in pads:
layout = [
("o_stb", 1),
("o_value", 2)
]
if fine_ts_bits:
layout.append(("o_fine_ts", fine_ts_bits))
if pad not in output_only_pads:
layout += [
("oe", 1),
("i_stb", 1),
("i_value", 1)
]
if fine_ts_bits:
layout.append(("i_fine_ts", fine_ts_bits))
rbus.append(Record(layout))
return rbus
def get_fine_ts_width(rbus):
if hasattr(rbus[0], "o_fine_ts"):
return flen(rbus[0].o_fine_ts)
else:
return 0
if hasattr(rbus[0], "o_fine_ts"):
return flen(rbus[0].o_fine_ts)
else:
return 0

146
soc/runtime/corecom_serial.c
View File

@ -6,123 +6,123 @@
#include "corecom.h"
enum {
MSGTYPE_REQUEST_IDENT = 0x01,
MSGTYPE_LOAD_KERNEL = 0x02,
MSGTYPE_KERNEL_FINISHED = 0x03,
MSGTYPE_RPC_REQUEST = 0x04,
MSGTYPE_REQUEST_IDENT = 0x01,
MSGTYPE_LOAD_KERNEL = 0x02,
MSGTYPE_KERNEL_FINISHED = 0x03,
MSGTYPE_RPC_REQUEST = 0x04,
};
static int receive_int(void)
{
unsigned int r;
int i;
unsigned int r;
int i;
r = 0;
for(i=0;i<4;i++) {
r <<= 8;
r |= (unsigned char)uart_read();
}
return r;
r = 0;
for(i=0;i<4;i++) {
r <<= 8;
r |= (unsigned char)uart_read();
}
return r;
}
static char receive_char(void)
{
return uart_read();
return uart_read();
}
static void send_int(int x)
{
int i;
int i;
for(i=0;i<4;i++) {
uart_write((x & 0xff000000) >> 24);
x <<= 8;
}
for(i=0;i<4;i++) {
uart_write((x & 0xff000000) >> 24);
x <<= 8;
}
}
static void send_sint(short int i)
{
uart_write((i >> 8) & 0xff);
uart_write(i & 0xff);
uart_write((i >> 8) & 0xff);
uart_write(i & 0xff);
}
static void send_char(char c)
{
uart_write(c);
uart_write(c);
}
static void receive_sync(void)
{
char c;
int recognized;
char c;
int recognized;
recognized = 0;
while(recognized < 4) {
c = uart_read();
if(c == 0x5a)
recognized++;
else
recognized = 0;
}
recognized = 0;
while(recognized < 4) {
c = uart_read();
if(c == 0x5a)
recognized++;
else
recognized = 0;
}
}
static void send_sync(void)
{
send_int(0x5a5a5a5a);
send_int(0x5a5a5a5a);
}
int ident_and_download_kernel(void *buffer, int maxlength)
{
int length;
unsigned int crc;
int i;
char msgtype;
unsigned char *_buffer = buffer;
int length;
unsigned int crc;
int i;
char msgtype;
unsigned char *_buffer = buffer;
while(1) {
receive_sync();
msgtype = receive_char();
if(msgtype == MSGTYPE_REQUEST_IDENT) {
send_int(0x41524f52); /* "AROR" - ARTIQ runtime on OpenRISC */
send_int(1000000000000LL/identifier_frequency_read()); /* RTIO clock period in picoseconds */
} else if(msgtype == MSGTYPE_LOAD_KERNEL) {
length = receive_int();
if(length > maxlength) {
send_char(0x4c); /* Incorrect length */
return -1;
}
crc = receive_int();
for(i=0;i<length;i++)
_buffer[i] = receive_char();
if(crc32(buffer, length) != crc) {
send_char(0x43); /* CRC failed */
return -1;
}
send_char(0x4f); /* kernel reception OK */
return length;
} else
return -1;
}
while(1) {
receive_sync();
msgtype = receive_char();
if(msgtype == MSGTYPE_REQUEST_IDENT) {
send_int(0x41524f52); /* "AROR" - ARTIQ runtime on OpenRISC */
send_int(1000000000000LL/identifier_frequency_read()); /* RTIO clock period in picoseconds */
} else if(msgtype == MSGTYPE_LOAD_KERNEL) {
length = receive_int();
if(length > maxlength) {
send_char(0x4c); /* Incorrect length */
return -1;
}
crc = receive_int();
for(i=0;i<length;i++)
_buffer[i] = receive_char();
if(crc32(buffer, length) != crc) {
send_char(0x43); /* CRC failed */
return -1;
}
send_char(0x4f); /* kernel reception OK */
return length;
} else
return -1;
}
}
int rpc(int rpc_num, int n_args, ...)
{
send_sync();
send_char(MSGTYPE_RPC_REQUEST);
send_sint(rpc_num);
send_char(n_args);
send_sync();
send_char(MSGTYPE_RPC_REQUEST);
send_sint(rpc_num);
send_char(n_args);
va_list args;
va_start(args, n_args);
while(n_args--)
send_int(va_arg(args, int));
va_end(args);
va_list args;
va_start(args, n_args);
while(n_args--)
send_int(va_arg(args, int));
va_end(args);
return receive_int();
return receive_int();
}
void kernel_finished(void)
{
send_sync();
send_char(MSGTYPE_KERNEL_FINISHED);
send_sync();
send_char(MSGTYPE_KERNEL_FINISHED);
}

36
soc/runtime/dds.c
View File

@ -10,33 +10,33 @@
#define DDS_GPIO 0x41
#define DDS_READ(addr) \
MMPTR(0xb0000000 + (addr)*4)
MMPTR(0xb0000000 + (addr)*4)
#define DDS_WRITE(addr, data) \
MMPTR(0xb0000000 + (addr)*4) = data
MMPTR(0xb0000000 + (addr)*4) = data
void dds_init(void)
{
int i;
int i;
DDS_WRITE(DDS_GPIO, 1 << 7);
DDS_WRITE(DDS_GPIO, 1 << 7);
for(i=0;i<8;i++) {
DDS_WRITE(DDS_GPIO, i);
DDS_WRITE(0x00, 0x78);
DDS_WRITE(0x01, 0x00);
DDS_WRITE(0x02, 0x00);
DDS_WRITE(0x03, 0x00);
DDS_WRITE(DDS_FUD, 0);
}
for(i=0;i<8;i++) {
DDS_WRITE(DDS_GPIO, i);
DDS_WRITE(0x00, 0x78);
DDS_WRITE(0x01, 0x00);
DDS_WRITE(0x02, 0x00);
DDS_WRITE(0x03, 0x00);
DDS_WRITE(DDS_FUD, 0);
}
}
void dds_program(int channel, int ftw)
{
DDS_WRITE(DDS_GPIO, channel);
DDS_WRITE(DDS_FTW0, ftw & 0xff);
DDS_WRITE(DDS_FTW1, (ftw >> 8) & 0xff);
DDS_WRITE(DDS_FTW2, (ftw >> 16) & 0xff);
DDS_WRITE(DDS_FTW3, (ftw >> 24) & 0xff);
DDS_WRITE(DDS_FUD, 0);
DDS_WRITE(DDS_GPIO, channel);
DDS_WRITE(DDS_FTW0, ftw & 0xff);
DDS_WRITE(DDS_FTW1, (ftw >> 8) & 0xff);
DDS_WRITE(DDS_FTW2, (ftw >> 16) & 0xff);
DDS_WRITE(DDS_FTW3, (ftw >> 24) & 0xff);
DDS_WRITE(DDS_FUD, 0);
}

296
soc/runtime/elf_loader.c
View File

@ -6,27 +6,27 @@
#define EI_NIDENT 16
struct elf32_ehdr {
unsigned char ident[EI_NIDENT]; /* ident bytes */
unsigned short type; /* file type */
unsigned short machine; /* target machine */
unsigned int version; /* file version */
unsigned int entry; /* start address */
unsigned int phoff; /* phdr file offset */
unsigned int shoff; /* shdr file offset */
unsigned int flags; /* file flags */
unsigned short ehsize; /* sizeof ehdr */
unsigned short phentsize; /* sizeof phdr */
unsigned short phnum; /* number phdrs */
unsigned short shentsize; /* sizeof shdr */
unsigned short shnum; /* number shdrs */
unsigned short shstrndx; /* shdr string index */
unsigned char ident[EI_NIDENT]; /* ident bytes */
unsigned short type; /* file type */
unsigned short machine; /* target machine */
unsigned int version; /* file version */
unsigned int entry; /* start address */
unsigned int phoff; /* phdr file offset */
unsigned int shoff; /* shdr file offset */
unsigned int flags; /* file flags */
unsigned short ehsize; /* sizeof ehdr */
unsigned short phentsize; /* sizeof phdr */
unsigned short phnum; /* number phdrs */
unsigned short shentsize; /* sizeof shdr */
unsigned short shnum; /* number shdrs */
unsigned short shstrndx; /* shdr string index */
} __attribute__((packed));
static const unsigned char elf_magic_header[] = {
0x7f, 0x45, 0x4c, 0x46, /* 0x7f, 'E', 'L', 'F' */
0x01, /* Only 32-bit objects. */
0x02, /* Only big-endian. */
0x01, /* Only ELF version 1. */
0x7f, 0x45, 0x4c, 0x46, /* 0x7f, 'E', 'L', 'F' */
0x01, /* Only 32-bit objects. */
0x02, /* Only big-endian. */
0x01, /* Only ELF version 1. */
};
#define ET_NONE 0 /* Unknown type. */
@ -38,26 +38,26 @@ static const unsigned char elf_magic_header[] = {
#define EM_OR1K 0x005c
struct elf32_shdr {
unsigned int name; /* section name */
unsigned int type; /* SHT_... */
unsigned int flags; /* SHF_... */
unsigned int addr; /* virtual address */
unsigned int offset; /* file offset */
unsigned int size; /* section size */
unsigned int link; /* misc info */
unsigned int info; /* misc info */
unsigned int addralign; /* memory alignment */
unsigned int entsize; /* entry size if table */
unsigned int name; /* section name */
unsigned int type; /* SHT_... */
unsigned int flags; /* SHF_... */
unsigned int addr; /* virtual address */
unsigned int offset; /* file offset */
unsigned int size; /* section size */
unsigned int link; /* misc info */
unsigned int info; /* misc info */
unsigned int addralign; /* memory alignment */
unsigned int entsize; /* entry size if table */
} __attribute__((packed));
struct elf32_name {
char name[12];
char name[12];
} __attribute__((packed));
struct elf32_rela {
unsigned int offset; /* Location to be relocated. */
unsigned int info; /* Relocation type and symbol index. */
int addend; /* Addend. */
unsigned int offset; /* Location to be relocated. */
unsigned int info; /* Relocation type and symbol index. */
int addend; /* Addend. */
} __attribute__((packed));
#define ELF32_R_SYM(info) ((info) >> 8)
@ -66,151 +66,151 @@ struct elf32_rela {
#define R_OR1K_INSN_REL_26 6
struct elf32_sym {
unsigned int name; /* String table index of name. */
unsigned int value; /* Symbol value. */
unsigned int size; /* Size of associated object. */
unsigned char info; /* Type and binding information. */
unsigned char other; /* Reserved (not used). */
unsigned short shndx; /* Section index of symbol. */
unsigned int name; /* String table index of name. */
unsigned int value; /* Symbol value. */
unsigned int size; /* Size of associated object. */
unsigned char info; /* Type and binding information. */
unsigned char other; /* Reserved (not used). */
unsigned short shndx; /* Section index of symbol. */
} __attribute__((packed));
#define SANITIZE_OFFSET_SIZE(offset, size) \
if(offset > 0x10000000) { \
printf("Incorrect offset in ELF data"); \
return 0; \
} \
if((offset + size) > elf_length) { \
printf("Attempted to access past the end of ELF data"); \
return 0; \
}
if(offset > 0x10000000) { \
printf("Incorrect offset in ELF data"); \
return 0; \
} \
if((offset + size) > elf_length) { \
printf("Attempted to access past the end of ELF data"); \
return 0; \
}
#define GET_POINTER_SAFE(target, target_type, offset) \
SANITIZE_OFFSET_SIZE(offset, sizeof(target_type)); \
target = (target_type *)((char *)elf_data + offset)
SANITIZE_OFFSET_SIZE(offset, sizeof(target_type)); \
target = (target_type *)((char *)elf_data + offset)
void *find_symbol(const struct symbol *symbols, const char *name)
{
int i;
int i;
i = 0;
while((symbols[i].name != NULL) && (strcmp(symbols[i].name, name) != 0))
i++;
return symbols[i].target;
i = 0;
while((symbols[i].name != NULL) && (strcmp(symbols[i].name, name) != 0))
i++;
return symbols[i].target;
}
static int fixup(void *dest, int dest_length, struct elf32_rela *rela, void *target)
{
int type, offset;
unsigned int *_dest = dest;
unsigned int *_target = target;
int type, offset;
unsigned int *_dest = dest;
unsigned int *_target = target;
type = ELF32_R_TYPE(rela->info);
offset = rela->offset/4;
if(type == R_OR1K_INSN_REL_26) {
int val;
type = ELF32_R_TYPE(rela->info);
offset = rela->offset/4;
if(type == R_OR1K_INSN_REL_26) {
int val;
val = _target - (_dest + offset);
_dest[offset] = (_dest[offset] & 0xfc000000) | (val & 0x03ffffff);
} else
printf("Unsupported relocation type: %d\n", type);
return 1;
val = _target - (_dest + offset);
_dest[offset] = (_dest[offset] & 0xfc000000) | (val & 0x03ffffff);
} else
printf("Unsupported relocation type: %d\n", type);
return 1;
}
int load_elf(symbol_resolver resolver, void *elf_data, int elf_length, void *dest, int dest_length)
{
struct elf32_ehdr *ehdr;
struct elf32_shdr *strtable;
unsigned int shdrptr;
int i;
struct elf32_ehdr *ehdr;
struct elf32_shdr *strtable;
unsigned int shdrptr;
int i;
unsigned int textoff, textsize;
unsigned int textrelaoff, textrelasize;
unsigned int symtaboff, symtabsize;
unsigned int strtaboff, strtabsize;
unsigned int textoff, textsize;
unsigned int textrelaoff, textrelasize;
unsigned int symtaboff, symtabsize;
unsigned int strtaboff, strtabsize;
/* validate ELF */
GET_POINTER_SAFE(ehdr, struct elf32_ehdr, 0);
if(memcmp(ehdr->ident, elf_magic_header, sizeof(elf_magic_header)) != 0) {
printf("Incorrect ELF header\n");
return 0;
}
if(ehdr->type != ET_REL) {
printf("ELF is not relocatable\n");
return 0;
}
if(ehdr->machine != EM_OR1K) {
printf("ELF is for a different machine\n");
return 0;
}
/* validate ELF */
GET_POINTER_SAFE(ehdr, struct elf32_ehdr, 0);
if(memcmp(ehdr->ident, elf_magic_header, sizeof(elf_magic_header)) != 0) {
printf("Incorrect ELF header\n");
return 0;
}
if(ehdr->type != ET_REL) {
printf("ELF is not relocatable\n");
return 0;
}
if(ehdr->machine != EM_OR1K) {
printf("ELF is for a different machine\n");
return 0;
}
/* extract section info */
GET_POINTER_SAFE(strtable, struct elf32_shdr, ehdr->shoff + ehdr->shentsize*ehdr->shstrndx);
textoff = textsize = 0;
textrelaoff = textrelasize = 0;
symtaboff = symtabsize = 0;
strtaboff = strtabsize = 0;
shdrptr = ehdr->shoff;
for(i=0;i<ehdr->shnum;i++) {
struct elf32_shdr *shdr;
struct elf32_name *name;
/* extract section info */
GET_POINTER_SAFE(strtable, struct elf32_shdr, ehdr->shoff + ehdr->shentsize*ehdr->shstrndx);
textoff = textsize = 0;
textrelaoff = textrelasize = 0;
symtaboff = symtabsize = 0;
strtaboff = strtabsize = 0;
shdrptr = ehdr->shoff;
for(i=0;i<ehdr->shnum;i++) {
struct elf32_shdr *shdr;
struct elf32_name *name;
GET_POINTER_SAFE(shdr, struct elf32_shdr, shdrptr);
GET_POINTER_SAFE(name, struct elf32_name, strtable->offset + shdr->name);
if(strncmp(name->name, ".text", 5) == 0) {
textoff = shdr->offset;
textsize = shdr->size;
} else if(strncmp(name->name, ".rela.text", 10) == 0) {
textrelaoff = shdr->offset;
textrelasize = shdr->size;
} else if(strncmp(name->name, ".symtab", 7) == 0) {
symtaboff = shdr->offset;
symtabsize = shdr->size;
} else if(strncmp(name->name, ".strtab", 7) == 0) {
strtaboff = shdr->offset;
strtabsize = shdr->size;
}
GET_POINTER_SAFE(shdr, struct elf32_shdr, shdrptr);
GET_POINTER_SAFE(name, struct elf32_name, strtable->offset + shdr->name);
if(strncmp(name->name, ".text", 5) == 0) {
textoff = shdr->offset;
textsize = shdr->size;
} else if(strncmp(name->name, ".rela.text", 10) == 0) {
textrelaoff = shdr->offset;
textrelasize = shdr->size;
} else if(strncmp(name->name, ".symtab", 7) == 0) {
symtaboff = shdr->offset;
symtabsize = shdr->size;
} else if(strncmp(name->name, ".strtab", 7) == 0) {
strtaboff = shdr->offset;
strtabsize = shdr->size;
}
shdrptr += ehdr->shentsize;
}
SANITIZE_OFFSET_SIZE(textoff, textsize);
SANITIZE_OFFSET_SIZE(textrelaoff, textrelasize);
SANITIZE_OFFSET_SIZE(symtaboff, symtabsize);
SANITIZE_OFFSET_SIZE(strtaboff, strtabsize);
shdrptr += ehdr->shentsize;
}
SANITIZE_OFFSET_SIZE(textoff, textsize);
SANITIZE_OFFSET_SIZE(textrelaoff, textrelasize);
SANITIZE_OFFSET_SIZE(symtaboff, symtabsize);
SANITIZE_OFFSET_SIZE(strtaboff, strtabsize);
/* load .text section */
if(textsize > dest_length) {
printf(".text section is too large\n");
return 0;
}
memcpy(dest, (char *)elf_data + textoff, textsize);
/* load .text section */
if(textsize > dest_length) {
printf(".text section is too large\n");
return 0;
}
memcpy(dest, (char *)elf_data + textoff, textsize);
/* process .text relocations */
for(i=0;i<textrelasize;i+=sizeof(struct elf32_rela)) {
struct elf32_rela *rela;
struct elf32_sym *sym;
char *name;
/* process .text relocations */
for(i=0;i<textrelasize;i+=sizeof(struct elf32_rela)) {
struct elf32_rela *rela;
struct elf32_sym *sym;
char *name;
GET_POINTER_SAFE(rela, struct elf32_rela, textrelaoff + i);
GET_POINTER_SAFE(sym, struct elf32_sym, symtaboff + sizeof(struct elf32_sym)*ELF32_R_SYM(rela->info));
if(sym->name != 0) {
void *target;
GET_POINTER_SAFE(rela, struct elf32_rela, textrelaoff + i);
GET_POINTER_SAFE(sym, struct elf32_sym, symtaboff + sizeof(struct elf32_sym)*ELF32_R_SYM(rela->info));
if(sym->name != 0) {
void *target;
name = (char *)elf_data + strtaboff + sym->name;
target = resolver(name);
if(target == NULL) {
printf("Undefined symbol: %s\n", name);
return 0;
}
if(!fixup(dest, dest_length, rela, target))
return 0;
} else {
printf("Unsupported relocation\n");
return 0;
}
}
name = (char *)elf_data + strtaboff + sym->name;
target = resolver(name);
if(target == NULL) {
printf("Undefined symbol: %s\n", name);
return 0;
}
if(!fixup(dest, dest_length, rela, target))
return 0;
} else {
printf("Unsupported relocation\n");
return 0;
}
}
return 1;
return 1;
}

4
soc/runtime/elf_loader.h
View File

@ -2,8 +2,8 @@
#define __ELF_LOADER_H
struct symbol {
char *name;
void *target;
char *name;
void *target;
};
void *find_symbol(const struct symbol *symbols, const char *name);

12
soc/runtime/gpio.c
View File

@ -4,11 +4,11 @@
void gpio_set(int channel, int value)
{
static int csr_value;
static int csr_value;
if(value)
csr_value |= 1 << channel;
else
csr_value &= ~(1 << channel);
leds_out_write(csr_value);
if(value)
csr_value |= 1 << channel;
else
csr_value &= ~(1 << channel);
leds_out_write(csr_value);
}

12
soc/runtime/isr.c
View File

@ -5,10 +5,10 @@
void isr(void);
void isr(void)
{
unsigned int irqs;
irqs = irq_pending() & irq_getmask();
if(irqs & (1 << UART_INTERRUPT))
uart_isr();
unsigned int irqs;
irqs = irq_pending() & irq_getmask();
if(irqs & (1 << UART_INTERRUPT))
uart_isr();
}

44
soc/runtime/main.c
View File

@ -13,29 +13,29 @@ typedef void (*kernel_function)(void);
int main(void)
{
unsigned char kbuf[256*1024];
unsigned char kcode[256*1024];
kernel_function k = (kernel_function)kcode;
int length;
unsigned char kbuf[256*1024];
unsigned char kcode[256*1024];
kernel_function k = (kernel_function)kcode;
int length;
irq_setmask(0);
irq_setie(1);
uart_init();
puts("ARTIQ runtime built "__DATE__" "__TIME__"\n");
irq_setmask(0);
irq_setie(1);
uart_init();
puts("ARTIQ runtime built "__DATE__" "__TIME__"\n");
while(1) {
length = ident_and_download_kernel(kbuf, sizeof(kbuf));
if(length > 0) {
if(load_elf(resolve_symbol, kbuf, length, kcode, sizeof(kcode))) {
rtio_init();
dds_init();
flush_cpu_icache();
k();
kernel_finished();
}
}
}
while(1) {
length = ident_and_download_kernel(kbuf, sizeof(kbuf));
if(length > 0) {
if(load_elf(resolve_symbol, kbuf, length, kcode, sizeof(kcode))) {
rtio_init();
dds_init();
flush_cpu_icache();
k();
kernel_finished();
}
}
}
return 0;
return 0;
}

18
soc/runtime/rtio.c
View File

@ -4,21 +4,21 @@
void rtio_init(void)
{
rtio_reset_write(1);
rtio_reset_write(1);
}
void rtio_set(long long int timestamp, int channel, int value)
{
rtio_reset_write(0);
rtio_chan_sel_write(channel);
rtio_o_timestamp_write(timestamp);
rtio_o_value_write(value);
while(!rtio_o_writable_read());
rtio_o_we_write(1);
rtio_reset_write(0);
rtio_chan_sel_write(channel);
rtio_o_timestamp_write(timestamp);
rtio_o_value_write(value);
while(!rtio_o_writable_read());
rtio_o_we_write(1);
}
void rtio_sync(int channel)
{
rtio_chan_sel_write(channel);
while(rtio_o_level_read() != 0);
rtio_chan_sel_write(channel);
while(rtio_o_level_read() != 0);
}

36
soc/runtime/symbols.c
View File

@ -8,34 +8,34 @@
#include "symbols.h"
static const struct symbol syscalls[] = {
{"rpc", rpc},
{"gpio_set", gpio_set},
{"rtio_set", rtio_set},
{"rtio_sync", rtio_sync},
{"dds_program", dds_program},
{NULL, NULL}
{"rpc", rpc},
{"gpio_set", gpio_set},
{"rtio_set", rtio_set},
{"rtio_sync", rtio_sync},
{"dds_program", dds_program},
{NULL, NULL}
};
static long long int gcd64(long long int a, long long int b)
{
long long int c;
long long int c;
while(a) {
c = a;
a = b % a;
b = c;
}
return b;
while(a) {
c = a;
a = b % a;
b = c;
}
return b;
}
static const struct symbol arithmetic[] = {
{"__gcd64", gcd64},
{NULL, NULL}
{"__gcd64", gcd64},
{NULL, NULL}
};
void *resolve_symbol(const char *name)
{
if(strncmp(name, "__syscall_", 10) == 0)
return find_symbol(syscalls, name + 10);
return find_symbol(arithmetic, name);
if(strncmp(name, "__syscall_", 10) == 0)
return find_symbol(syscalls, name + 10);
return find_symbol(arithmetic, name);
}

64
soc/targets/artiq.py
View File

@ -7,44 +7,44 @@ from targets.ppro import BaseSoC
from artiqlib import rtio, ad9858
_tester_io = [
("user_led", 1, Pins("B:7"), IOStandard("LVTTL")),
("ttl", 0, Pins("C:13"), IOStandard("LVTTL")),
("ttl", 1, Pins("C:11"), IOStandard("LVTTL")),
("ttl", 2, Pins("C:10"), IOStandard("LVTTL")),
("ttl", 3, Pins("C:9"), IOStandard("LVTTL")),
("ttl_tx_en", 0, Pins("A:9"), IOStandard("LVTTL")),
("dds", 0,
Subsignal("a", Pins("A:5 B:10 A:6 B:9 A:7 B:8")),
Subsignal("d", Pins("A:12 B:3 A:13 B:2 A:14 B:1 A:15 B:0")),
Subsignal("sel", Pins("A:2 B:14 A:1 B:15 A:0")),
Subsignal("p", Pins("A:8 B:12")),
Subsignal("fud_n", Pins("B:11")),
Subsignal("wr_n", Pins("A:4")),
Subsignal("rd_n", Pins("B:13")),
Subsignal("rst_n", Pins("A:3")),
IOStandard("LVTTL")),
("user_led", 1, Pins("B:7"), IOStandard("LVTTL")),
("ttl", 0, Pins("C:13"), IOStandard("LVTTL")),
("ttl", 1, Pins("C:11"), IOStandard("LVTTL")),
("ttl", 2, Pins("C:10"), IOStandard("LVTTL")),
("ttl", 3, Pins("C:9"), IOStandard("LVTTL")),
("ttl_tx_en", 0, Pins("A:9"), IOStandard("LVTTL")),
("dds", 0,
Subsignal("a", Pins("A:5 B:10 A:6 B:9 A:7 B:8")),
Subsignal("d", Pins("A:12 B:3 A:13 B:2 A:14 B:1 A:15 B:0")),
Subsignal("sel", Pins("A:2 B:14 A:1 B:15 A:0")),
Subsignal("p", Pins("A:8 B:12")),
Subsignal("fud_n", Pins("B:11")),
Subsignal("wr_n", Pins("A:4")),
Subsignal("rd_n", Pins("B:13")),
Subsignal("rst_n", Pins("A:3")),
IOStandard("LVTTL")),
]
class ARTIQMiniSoC(BaseSoC):
csr_map = {
"rtio": 10
}
csr_map.update(BaseSoC.csr_map)
csr_map = {
"rtio": 10
}
csr_map.update(BaseSoC.csr_map)
def __init__(self, platform, cpu_type="or1k", **kwargs):
BaseSoC.__init__(self, platform, cpu_type=cpu_type, **kwargs)
platform.add_extension(_tester_io)
def __init__(self, platform, cpu_type="or1k", **kwargs):
BaseSoC.__init__(self, platform, cpu_type=cpu_type, **kwargs)
platform.add_extension(_tester_io)
self.submodules.leds = gpio.GPIOOut(Cat(platform.request("user_led", 0),
platform.request("user_led", 1)))
self.submodules.leds = gpio.GPIOOut(Cat(platform.request("user_led", 0),
platform.request("user_led", 1)))
self.comb += platform.request("ttl_tx_en").eq(1)
rtio_pads = [platform.request("ttl", i) for i in range(4)]
self.submodules.rtiophy = rtio.phy.SimplePHY(rtio_pads,
{rtio_pads[1], rtio_pads[2], rtio_pads[3]})
self.submodules.rtio = rtio.RTIO(self.rtiophy)
self.comb += platform.request("ttl_tx_en").eq(1)
rtio_pads = [platform.request("ttl", i) for i in range(4)]
self.submodules.rtiophy = rtio.phy.SimplePHY(rtio_pads,
{rtio_pads[1], rtio_pads[2], rtio_pads[3]})
self.submodules.rtio = rtio.RTIO(self.rtiophy)
self.submodules.dds = ad9858.AD9858(platform.request("dds"))
self.add_wb_slave(lambda a: a[26:29] == 3, self.dds.bus)
self.submodules.dds = ad9858.AD9858(platform.request("dds"))
self.add_wb_slave(lambda a: a[26:29] == 3, self.dds.bus)
default_subtarget = ARTIQMiniSoC