class MuxInOut:
- def __init__(self, dut, width, fpkls, fpop, vals, single_op, opcode):
+ def __init__(self, dut, width, fpkls, fpop, vals, single_op, opcode,
+ cancel=False):
+ self.cancel = cancel # allow (test) cancellation
self.dut = dut
self.fpkls = fpkls
self.fpop = fpop
self.opcode = opcode
self.di = {}
self.do = {}
+ self.sent = {}
self.tlen = len(vals) // dut.num_rows
self.width = width
for muxid in range(dut.num_rows):
self.di[muxid] = {}
- self.do[muxid] = []
+ self.do[muxid] = {}
+ self.sent[muxid] = []
+
for i in range(self.tlen):
if self.single_op:
#print ("vals", vals)
#print ("test", hex(op1), hex(op2))
res = self.fpop(self.fpkls(op1), self.fpkls(op2))
self.di[muxid][i] = (op1, op2)
- self.do[muxid].append(res.bits)
+ if hasattr(res, "bits"):
+ self.do[muxid][i] = res.bits
+ else:
+ self.do[muxid][i] = res # for FP to INT
def send(self, muxid):
+ rs = self.dut.p[muxid]
for i in range(self.tlen):
if self.single_op:
op1, = self.di[muxid][i]
else:
op1, op2 = self.di[muxid][i]
- rs = self.dut.p[muxid]
yield rs.valid_i.eq(1)
yield rs.data_i.a.eq(op1)
if self.opcode is not None:
if not self.single_op:
yield rs.data_i.b.eq(op2)
yield rs.data_i.muxid.eq(muxid)
+ if hasattr(rs, "mask_i"):
+ yield rs.mask_i.eq(1) # TEMPORARY HACK
yield
o_p_ready = yield rs.ready_o
while not o_p_ready:
if self.single_op:
fop1 = self.fpkls(op1)
res = self.fpop(fop1)
- print ("send", muxid, i, hex(op1), hex(res.bits),
- fop1, res)
+ if hasattr(res, "bits"):
+ r = res.bits
+ else:
+ r = res
+ print("send", muxid, i, hex(op1), hex(r),
+ fop1, res)
else:
fop1 = self.fpkls(op1)
fop2 = self.fpkls(op2)
res = self.fpop(fop1, fop2)
- print ("send", muxid, i, hex(op1), hex(op2), hex(res.bits),
- fop1, fop2, res)
+ print("send", muxid, i, hex(op1), hex(op2), hex(res.bits),
+ fop1, fop2, res)
+
+ self.sent[muxid].append(i)
yield rs.valid_i.eq(0)
+ if hasattr(rs, "mask_i"):
+ yield rs.mask_i.eq(0) # TEMPORARY HACK
+ # wait until it's received
+ while i in self.sent[muxid]:
+ yield
+
# wait random period of time before queueing another value
for i in range(randint(0, 3)):
yield
yield rs.valid_i.eq(0)
yield
- print ("send ended", muxid)
+ print("send ended", muxid)
## wait random period of time before queueing another value
#for i in range(randint(0, 3)):
# send = randint(0, send_range) != 0
def rcv(self, muxid):
+ rs = self.dut.p[muxid]
while True:
+
+ # check cancellation
+ cancel = self.cancel and (randint(0, 2) == 0)
+ if hasattr(rs, "mask_i") and len(self.sent[muxid]) > 0 and cancel:
+ todel = self.sent[muxid].pop()
+ print ("to delete", muxid, self.sent[muxid], todel)
+ if todel in self.do[muxid]:
+ del self.do[muxid][todel]
+ yield rs.stop_i.eq(1)
+ print ("left", muxid, self.do[muxid])
+ if len(self.do[muxid]) == 0:
+ break
+
#stall_range = randint(0, 3)
#for j in range(randint(1,10)):
# stall = randint(0, stall_range) != 0
n = self.dut.n[muxid]
yield n.ready_i.eq(1)
yield
+ if hasattr(rs, "mask_i"):
+ yield rs.stop_i.eq(0) # resets cancel mask
+
o_n_valid = yield n.valid_o
i_n_ready = yield n.ready_i
if not o_n_valid or not i_n_ready:
out_muxid = yield n.data_o.muxid
out_z = yield n.data_o.z
- out_i = 0
+ if not self.sent[muxid]:
+ print ("cancelled/recv", muxid, hex(out_z))
+ continue
+
+ out_i = self.sent[muxid].pop()
- print ("recv", out_muxid, hex(out_z), "expected",
- hex(self.do[muxid][out_i] ))
+ print("recv", out_muxid, hex(out_z), "expected",
+ hex(self.do[muxid][out_i]))
# see if this output has occurred already, delete it if it has
assert muxid == out_muxid, "out_muxid %d not correct %d" % \
(out_muxid, muxid)
+
assert self.do[muxid][out_i] == out_z
+
+ print ("senddel", muxid, out_i, self.sent[muxid])
del self.do[muxid][out_i]
# check if there's any more outputs
if len(self.do[muxid]) == 0:
break
- print ("recv ended", muxid)
+
+ print("recv ended", muxid)
def create_random(num_rows, width, single_op=False, n_vals=10):
for muxid in range(num_rows):
for i in range(n_vals):
if single_op:
- op1 = randint(0, (1<<width)-1)
+ op1 = randint(0, (1 << width)-1)
#op1 = 0x40900000
#op1 = 0x94607b66
#op1 = 0x889cd8c
#op1 = 0x1841
+ # FSQRT
#op1 = 0x3449f9a9
+ #op1 = 0x1ba94baa
+
+ #if i % 2:
+ # op1 = 0x0001
+ #else:
+ # op1 = 0x3C00
+
+ # FRSQRT
+ #op1 = 0x3686
+ #op1 = 0x4400
+ #op1 = 0x4800
+ #op1 = 0x48f0
+ #op1 = 0x429
+ #op1 = 0x2631
+ #op1 = 0x3001
+ #op1 = 0x3f2ad8eb
+
+ # f2int
+ #op1 = 0x4dc0
+ #op1 = 0x3b81
+ #op1 = 0xfcb6
+ #op1 = 0x4f8d77b3
+
+ # f2int signed
+ #op1 = 0xc913
+ #op1 = 0x7b97
+ #op1 = 0xaae2
+ #op1 = 0x7fca
+
+ # FCLASS
+ #op1 = 0x87d1
+ #op1 = 0x75e
+ #op1 = 0x7f8c
+ #op1 = 0x7c57
+ #op1 = 0xfea8
+ #op1 = 0xfd57
+
+ # f2int unsigned (fp64 to ui16)
+ #op1 = 0x40e6f5bc4d88b0cc
+
+ # f2int signed (fp64 to i16)
+ #op1 = 0xff292cf09f159ddb
+ #op1 = 0x5880e09f7cb716a1
+
+ # f2int signed (fp64 to i32)
+ #op1 = 0x5beb66ffc69a9a64
+ #op1 = 0xd4cdd178a1f2cdec
vals.append((op1,))
else:
- op1 = randint(0, (1<<width)-1)
- op2 = randint(0, (1<<width)-1)
+ op1 = randint(0, (1 << width)-1)
+ op2 = randint(0, (1 << width)-1)
+ # op1 = 0x3F800000 # 1.0f32
+ # op2 = 0x40000000 # 2.0f32
#op2 = 0x4000
#op1 = 0x3c50
#op2 = 0x3e00
+ #op2 = 0xb371
+ #op1 = 0x4400
+ #op1 = 0x656c
+ #op1 = 0x738c
+
vals.append((op1, op2,))
return vals
def pipe_cornercases_repeat(dut, name, mod, fmod, width, fn, cc, fpfn, count,
- single_op=False):
+ single_op=False, opcode=None):
for i, fixed_num in enumerate(cc(mod)):
vals = fn(mod, fixed_num, count, width, single_op)
vals = repeat(dut.num_rows, vals)
#print ("repeat", i, fn, single_op, list(vals))
fmt = "test_pipe_fp%d_%s_cornercases_%d"
runfp(dut, width, fmt % (width, name, i),
- fmod, fpfn, vals=vals, single_op=single_op)
+ fmod, fpfn, vals=vals, single_op=single_op, opcode=opcode)
def runfp(dut, width, name, fpkls, fpop, single_op=False, n_vals=10,
- vals=None, opcode=None):
+ vals=None, opcode=None, cancel=False):
vl = rtlil.convert(dut, ports=dut.ports())
with open("%s.il" % name, "w") as f:
f.write(vl)
projects / ieee754fpu.git / blobdiff