dut = GRev(log2_width)
self.assertEqual(width, dut.width)
- def case(input, chunk_sizes):
- expected = grev(input, chunk_sizes, log2_width)
- with self.subTest(input=hex(input), chunk_sizes=bin(chunk_sizes),
+ def case(inval, chunk_sizes):
+ expected = grev(inval, chunk_sizes, log2_width)
+ with self.subTest(inval=hex(inval), chunk_sizes=bin(chunk_sizes),
expected=hex(expected)):
- yield dut.input.eq(input)
+ yield dut.input.eq(inval)
yield dut.chunk_sizes.eq(chunk_sizes)
yield Delay(1e-6)
output = yield dut.output
self.assertEqual(expected, output)
for i, step in enumerate(dut._steps):
cur_chunk_sizes = chunk_sizes & (2 ** i - 1)
- step_expected = grev(input, cur_chunk_sizes, log2_width)
+ step_expected = grev(inval, cur_chunk_sizes, log2_width)
step = yield step
with self.subTest(i=i, step=hex(step),
cur_chunk_sizes=bin(cur_chunk_sizes),
def process():
self.assertEqual(len(dut._steps), log2_width + 1)
for count in range(width + 1):
- input = (1 << count) - 1
+ inval = (1 << count) - 1
for chunk_sizes in range(2 ** log2_width):
- yield from case(input, chunk_sizes)
+ yield from case(inval, chunk_sizes)
for i in range(100):
- input = hash_256(f"grev input {i}")
- input &= 2 ** width - 1
+ inval = hash_256(f"grev input {i}")
+ inval &= 2 ** width - 1
chunk_sizes = hash_256(f"grev 2 {i}")
chunk_sizes &= 2 ** log2_width - 1
- yield from case(input, chunk_sizes)
+ yield from case(inval, chunk_sizes)
with do_sim(self, dut, [dut.input, dut.chunk_sizes,
dut.output]) as sim:
sim.add_process(process)