print("%s Writing model to VCD file." % smt.timestamp())
vcd = mkvcd(open(vcdfile, "w"))
+
for netpath in sorted(smt.hiernets(topmod)):
- width = len(smt.get_net_bin(topmod, netpath, "s0"))
- vcd.add_net([topmod] + netpath, width)
+ vcd.add_net([topmod] + netpath, smt.net_width(topmod, netpath))
for i in range(steps):
vcd.set_time(i)
- for netpath in sorted(smt.hiernets(topmod)):
- vcd.set_net([topmod] + netpath, smt.get_net_bin(topmod, netpath, "s%d" % i))
+ path_list = sorted(smt.hiernets(topmod))
+ value_list = smt.get_net_bin_list(topmod, path_list, "s%d" % i)
+ for path, value in zip(path_list, value_list):
+ vcd.set_net([topmod] + path, value)
vcd.set_time(steps)
print("< %s" % line)
if count_brackets == 0:
break
- if not self.p.poll():
+ if self.p.poll():
print("SMT Solver terminated unexpectedly: %s" % "".join(stmt))
sys.exit(1)
self.write("(get-value (%s))" % (expr))
return self.parse(self.read())[0][1]
- def get_net(self, mod_name, net_path, state_name):
- def mkexpr(mod, base, path):
- if len(path) == 1:
- assert mod in self.modinfo
- assert path[0] in self.modinfo[mod].wsize
- return "(|%s_n %s| %s)" % (mod, path[0], base)
+ def get_list(self, expr_list):
+ self.write("(get-value (%s))" % " ".join(expr_list))
+ return [n[1] for n in self.parse(self.read())]
+
+ def net_expr(self, mod, base, path):
+ if len(path) == 1:
+ assert mod in self.modinfo
+ assert path[0] in self.modinfo[mod].wsize
+ return "(|%s_n %s| %s)" % (mod, path[0], base)
+
+ assert mod in self.modinfo
+ assert path[0] in self.modinfo[mod].cells
+ nextmod = self.modinfo[mod].cells[path[0]]
+ nextbase = "(|%s_h %s| %s)" % (mod, path[0], base)
+ return self.net_expr(nextmod, nextbase, path[1:])
+
+ def net_width(self, mod, net_path):
+ for i in range(len(net_path)-1):
assert mod in self.modinfo
- assert path[0] in self.modinfo[mod].cells
+ assert net_path[i] in self.modinfo[mod].cells
+ mod = self.modinfo[mod].cells[net_path[i]]
- nextmod = self.modinfo[mod].cells[path[0]]
- nextbase = "(|%s_h %s| %s)" % (mod, path[0], base)
- return mkexpr(nextmod, nextbase, path[1:])
+ assert mod in self.modinfo
+ assert net_path[-1] in self.modinfo[mod].wsize
+ return self.modinfo[mod].wsize[net_path[-1]]
- return self.get(mkexpr(mod_name, state_name, net_path))
+ def get_net(self, mod_name, net_path, state_name):
+ return self.get(self.net_expr(mod_name, state_name, net_path))
- def get_net_bool(self, mod_name, net_path, state_name):
- v = self.get_net(mod_name, net_path, state_name)
- assert v in ["true", "false"]
- return 1 if v == "true" else 0
+ def get_net_list(self, mod_name, net_path_list, state_name):
+ return self.get_list([self.net_expr(mod_name, state_name, n) for n in net_path_list])
def get_net_hex(self, mod_name, net_path, state_name):
return self.bv2hex(self.get_net(mod_name, net_path, state_name))
+ def get_net_hex_list(self, mod_name, net_path_list, state_name):
+ return [self.bv2hex(v) for v in self.get_net_list(mod_name, net_path_list, state_name)]
+
def get_net_bin(self, mod_name, net_path, state_name):
return self.bv2bin(self.get_net(mod_name, net_path, state_name))
+ def get_net_bin_list(self, mod_name, net_path_list, state_name):
+ return [self.bv2bin(v) for v in self.get_net_list(mod_name, net_path_list, state_name)]
+
def wait(self):
self.p.wait()