def do_test(arch, clk, phy, seed):
rand = random.Random()
rand.seed(seed)
dev_address = get_dut_address()
ep_loopback = 3
# The inter-frame gap is to give the DUT time to print its output
packets = []
data_val = 0;
pkt_length = 20
data_pid = 0x3 #DATA0
for pkt_length in range(10, 20):
# min 237
# increased to 277 when SETUP/OUT checking added
AppendOutToken(packets, ep_loopback, inter_pkt_gap=277)
packets.append(TxDataPacket(rand, data_start_val=data_val, length=pkt_length, pid=data_pid)) #DATA0
packets.append(RxHandshakePacket(timeout=9))
data_val = data_val + pkt_length
data_pid = data_pid ^ 8
do_rx_test(arch, clk, phy, packets, __file__, seed,
level='smoke', extra_tasks=[])
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
packets = []
# Part A - Send different length preambles and ensure the packets are still received
# Check a selection of preamble lengths from 1 byte to 64 bytes (including SFD)
test_lengths = [3, 4, 5, 61, 127]
if tx_clk.get_rate() == Clock.CLK_125MHz:
# The RGMII requires a longer preamble
test_lengths = [5, 7, 9, 61, 127]
for num_preamble_nibbles in test_lengths:
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
num_preamble_nibbles=num_preamble_nibbles,
create_data_args=[
'step',
(rand.randint(1, 254), choose_small_frame_size(rand))
],
inter_frame_gap=packet_processing_time(tx_phy, 46, mac)))
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__,
seed)
def do_test(arch, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dev_address = get_dut_address()
ep = 1
# The inter-frame gap is to give the DUT time to print its output
packets = []
dataval = 0
AppendOutToken(packets, ep)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=10, pid=0x3)) #DATA0
packets.append(RxHandshakePacket())
# Note, quite big gap to allow checking.
dataval += 10
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=11, pid=0xb)) #DATA1
packets.append(RxHandshakePacket())
dataval += 11
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand,
data_start_val=dataval,
length=12,
bad_crc=True,
pid=0x3)) #DATA0
# Bad CRC - dont expect ACK
#packets.append(RxHandshakePacket())
#Due to bad CRC, XUD will not ACK and expect a resend of the same packet - so dont change PID
dataval += 12
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=13, pid=0x3)) #DATA0
packets.append(RxHandshakePacket(timeout=9))
# PID toggle as normal
dataval += 13
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=14, pid=0xb)) #DATA1
packets.append(RxHandshakePacket())
do_rx_test(arch,
tx_clk,
tx_phy,
packets,
__file__,
seed,
level='smoke',
extra_tasks=[])
def do_test(arch, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dev_address = get_dut_address()
ep = 2
# The inter-frame gap is to give the DUT time to print its output
packets = []
dataval = 0
AppendInToken(packets, ep)
packets.append(
RxDataPacket(rand, data_start_val=dataval, length=10, pid=0x3)) #DATA0
packets.append(TxHandshakePacket())
dataval += 10
AppendInToken(packets, ep, inter_pkt_gap=5000)
packets.append(
RxDataPacket(rand, data_start_val=dataval, length=11, pid=0xb)) #DATA1
packets.append(TxHandshakePacket())
#pretend CRC got broken on way to host and dont send ACK
dataval += 11
AppendInToken(packets, ep, inter_pkt_gap=5000)
packets.append(
RxDataPacket(rand, data_start_val=dataval, length=12, pid=0x3)) #DATA0
#packets.append(TxHandshakePacket())
#xCore should resend same packet again..
AppendInToken(packets, ep, inter_pkt_gap=5000)
packets.append(
RxDataPacket(rand, data_start_val=dataval, length=12, pid=0x3)) #DATA0
packets.append(TxHandshakePacket())
dataval += 12
AppendInToken(packets, ep, inter_pkt_gap=5000)
packets.append(
RxDataPacket(rand, data_start_val=dataval, length=13, pid=0xb)) #DATA1
packets.append(TxHandshakePacket())
dataval += 13
AppendInToken(packets, ep, inter_pkt_gap=5000)
packets.append(
RxDataPacket(rand, data_start_val=dataval, length=14, pid=0x3)) #DATA0
packets.append(TxHandshakePacket())
# Note, quite big gap to allow checking.
do_rx_test(arch,
tx_clk,
tx_phy,
packets,
__file__,
seed,
level='smoke',
extra_tasks=[])
def do_test(arch, clk, phy, seed):
rand = random.Random()
rand.seed(seed)
dev_address = get_dut_address()
ep = 1
# The inter-frame gap is to give the DUT time to print its output
packets = []
dataval = 0
AppendOutToken(packets, ep)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=10, pid=0x3)) #DATA0
packets.append(RxHandshakePacket())
# Note, quite big gap to allow checking.
dataval += 10
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=11, pid=0xb)) #DATA1
packets.append(RxHandshakePacket())
#Pretend the ACK went missing. Re-send same packet. xCORE should ACK but throw pkt away
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=11, pid=0xb)) #DATA1
packets.append(RxHandshakePacket())
dataval += 11
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=12, pid=0x3)) #DATA0
packets.append(RxHandshakePacket())
dataval += 12
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=13, pid=0xb)) #DATA1
packets.append(RxHandshakePacket(timeout=9))
dataval += 13
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=14, pid=0x3)) #DATA0
packets.append(RxHandshakePacket())
do_rx_test(arch,
clk,
phy,
packets,
__file__,
seed,
level='smoke',
extra_tasks=[])
def do_test(arch, clk, phy, seed):
rand = random.Random()
rand.seed(seed)
# The inter-frame gap is to give the DUT time to print its output
packets = []
data_val = 0
pkt_length = 20
data_pid = 0x3 #DATA0
for pkt_length in range(10, 20):
#min 237
AppendOutToken(packets, 3, inter_pkt_gap=1)
packets.append(
TxDataPacket(rand,
data_start_val=data_val,
length=pkt_length,
pid=data_pid)) #DATA0
packets.append(RxHandshakePacket(timeout=9))
AppendOutToken(packets, 4, inter_pkt_gap=1)
packets.append(
TxDataPacket(rand,
data_start_val=data_val,
length=pkt_length,
pid=data_pid)) #DATA0
packets.append(RxHandshakePacket(timeout=9))
AppendOutToken(packets, 5, inter_pkt_gap=0)
packets.append(
TxDataPacket(rand,
data_start_val=data_val,
length=pkt_length,
pid=data_pid)) #DATA0
packets.append(RxHandshakePacket(timeout=9))
AppendOutToken(packets, 6, inter_pkt_gap=0)
packets.append(
TxDataPacket(rand,
data_start_val=data_val,
length=pkt_length,
pid=data_pid)) #DATA0
packets.append(RxHandshakePacket(timeout=9))
data_val = data_val + pkt_length
data_pid = data_pid ^ 8
do_rx_test(arch,
clk,
phy,
packets,
__file__,
seed,
level='smoke',
extra_tasks=[])
def do_test(arch, clk, phy, seed):
rand = random.Random()
rand.seed(seed)
ep_loopback = 3
ep_loopback_kill = 2
# The inter-frame gap is to give the DUT time to print its output
packets = []
dataval = 0
data_pid = 0x3 #DATA0
for pkt_length in range(0, 20):
AppendOutToken(packets, ep_loopback)
packets.append(
TxDataPacket(rand,
data_start_val=dataval,
length=pkt_length,
pid=data_pid)) #DATA0
packets.append(RxHandshakePacket(timeout=9))
# 357 was min IPG supported on bulk loopback to not nak
# For move from sc_xud to lib_xud (14.1.2 tools) had to increase this to 377
# Increased again due to setup/out checking
AppendInToken(packets, ep_loopback, inter_pkt_gap=417)
packets.append(
RxDataPacket(rand,
data_start_val=dataval,
length=pkt_length,
pid=data_pid,
timeout=9)) #DATA0
packets.append(TxHandshakePacket())
data_pid = data_pid ^ 8
pkt_length = 10
#Loopback and die..
AppendOutToken(packets, ep_loopback_kill)
packets.append(TxDataPacket(rand, length=pkt_length, pid=3)) #DATA0
packets.append(RxHandshakePacket())
AppendInToken(packets, ep_loopback_kill, inter_pkt_gap=400)
packets.append(RxDataPacket(rand, length=pkt_length, pid=3)) #DATA0
packets.append(TxHandshakePacket())
do_rx_test(arch,
clk,
phy,
packets,
__file__,
seed,
level='smoke',
extra_tasks=[])
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
broadcast_mac_address = [0xff, 0xff, 0xff, 0xff, 0xff, 0xff]
# The inter-frame gap is to give the DUT time to print its output
packets = []
for mac_address in [dut_mac_address, broadcast_mac_address]:
packets.append(
MiiPacket(rand,
dst_mac_addr=mac_address,
create_data_args=['step', (1, 72)]))
packets.append(
MiiPacket(rand,
dst_mac_addr=mac_address,
create_data_args=['step', (5, 52)],
inter_frame_gap=packet_processing_time(tx_phy, 72, mac)))
packets.append(
MiiPacket(rand,
dst_mac_addr=mac_address,
create_data_args=['step', (7, 1500)],
inter_frame_gap=packet_processing_time(tx_phy, 52, mac)))
# Send enough basic frames to ensure the buffers in the DUT have wrapped
for i in range(11):
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (i, 1500)],
inter_frame_gap=packet_processing_time(
tx_phy, 1500, mac)))
do_error = True
# The gigabit RGMII can't handle spurious errors
if tx_clk.get_rate() == Clock.CLK_125MHz:
do_error = False
error_driver = TxError(tx_phy, do_error)
do_rx_test(mac,
arch,
rx_clk,
rx_phy,
tx_clk,
tx_phy,
packets,
__file__,
seed,
level='smoke',
extra_tasks=[error_driver])
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
if tx_clk.get_rate() == Clock.CLK_125MHz:
# This test is not relevant for gigabit
return
dut_mac_address = get_dut_mac_address()
error_packets = []
# Part A - Valid packet with an extra nibble (should be accepted)
error_packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
extra_nibble=True,
create_data_args=['step', (22, choose_small_frame_size(rand))]
))
# Part B - Invalid packet with an extra nibble (should be reported as alignmentError)
error_packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
extra_nibble=True, corrupt_crc=True,
create_data_args=['step', (23, choose_small_frame_size(rand))],
dropped=True
))
# Part C - Parts A and B with valid frames before/after the errror frame
packets = []
for packet in error_packets:
packets.append(packet)
ifg = tx_clk.get_min_ifg()
for i,packet in enumerate(error_packets):
# First valid frame (allowing time to process previous two valid frames)
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (i%10, choose_small_frame_size(rand))],
inter_frame_gap=2*packet_processing_time(tx_phy, 46, mac)
))
# Take a copy to ensure that the original is not modified
packet_copy = copy.deepcopy(packet)
# Error frame after minimum IFG
packet_copy.set_ifg(ifg)
packets.append(packet_copy)
# Second valid frame with minimum IFG
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (2 * ((i+1)%10), choose_small_frame_size(rand))],
inter_frame_gap=ifg
))
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__, seed)
def do_test(arch, clk, phy, seed):
rand = random.Random()
rand.seed(seed)
dev_address = get_dut_address()
ep = 1
# The inter-frame gap is to give the DUT time to print its output
packets = []
dataval = 0
# Ping EP 2, expect NAK
AppendPingToken(packets, 2)
packets.append(RxHandshakePacket(pid=0x5a))
# And again
AppendPingToken(packets, 2)
packets.append(RxHandshakePacket(pid=0x5a))
# Send packet to EP 1, xCORE should mark EP 2 as ready
AppendOutToken(packets, ep)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=10, pid=0x3)) #DATA0
packets.append(RxHandshakePacket())
# Ping EP 2 again - expect ACK
AppendPingToken(packets, 2, inter_pkt_gap=6000)
packets.append(RxHandshakePacket())
# And again..
AppendPingToken(packets, 2)
packets.append(RxHandshakePacket())
# Send out to EP 2.. expect ack
AppendOutToken(packets, 2, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=10, pid=0x3)) #DATA0
packets.append(RxHandshakePacket())
# Re-Ping EP 2, expect NAK
AppendPingToken(packets, 2)
packets.append(RxHandshakePacket(pid=0x5a))
# And again
AppendPingToken(packets, 2)
packets.append(RxHandshakePacket(pid=0x5a))
do_rx_test(arch,
clk,
phy,
packets,
__file__,
seed,
level='smoke',
extra_tasks=[])
def do_test(arch, clk, phy, seed):
rand = random.Random()
rand.seed(seed)
ep_loopback = 3
ep_loopback_kill = 2
# The inter-frame gap is to give the DUT time to print its output
packets = []
dataval = 0
data_pid = 0x3 #DATA0
for pkt_length in range(200, 204):
AppendOutToken(packets, ep_loopback)
packets.append(
TxDataPacket(rand,
data_start_val=dataval,
length=pkt_length,
pid=data_pid)) #DATA0
#XXwas min IPG supported on iso loopback to not nak
#This was 420, had to increase when moved to lib_xud (14.1.2 tools)
# increased again from 437 when SETUP/OUT checking added
AppendInToken(packets, ep_loopback, inter_pkt_gap=477)
packets.append(
RxDataPacket(rand,
data_start_val=dataval,
length=pkt_length,
pid=data_pid,
timeout=9)) #DATA0
#No toggle for Iso
pkt_length = 10
#Loopback and die..
AppendOutToken(packets, ep_loopback_kill)
packets.append(TxDataPacket(rand, length=pkt_length, pid=3)) #DATA0
packets.append(RxHandshakePacket())
AppendInToken(packets, ep_loopback_kill, inter_pkt_gap=397)
packets.append(RxDataPacket(rand, length=pkt_length, pid=3)) #DATA0
packets.append(TxHandshakePacket())
do_rx_test(arch,
clk,
phy,
packets,
__file__,
seed,
level='smoke',
extra_tasks=[])
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
error_packets = []
# Part A - maximum jabber size packet
# Use a valid ether type as the type/len field can't encode the length
ether_type_ip = [0x08, 0x00]
# Jabber lengths as defined for 10Mb/s & 100Mb/s
jabber_length = 9367
if tx_clk.get_rate() == Clock.CLK_125MHz:
# Length for 1000Mb/s
jabber_length = 18742
error_packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
ether_len_type=ether_type_ip,
num_preamble_nibbles=7,
create_data_args=['step', (17, jabber_length)],
dropped=True
))
# Part B - Part A with valid frames before/after the errror frame
packets = []
for packet in error_packets:
packets.append(packet)
ifg = tx_clk.get_min_ifg()
for i,packet in enumerate(error_packets):
# First valid frame (allowing time to process previous two valid frames)
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (i%10, choose_small_frame_size(rand))],
inter_frame_gap=2*packet_processing_time(tx_phy, 46, mac)
))
# Take a copy to ensure that the original is not modified
packet_copy = copy.deepcopy(packet)
# Error frame after minimum IFG
packet_copy.set_ifg(ifg)
packets.append(packet_copy)
# Second valid frame with minimum IFG
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (2 * ((i+1)%10), choose_small_frame_size(rand))],
inter_frame_gap=ifg
))
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__, seed)
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
error_packets = []
# Part A - length errors (len/type field value greater than actual data length)
for (num_data_bytes, len_type, step) in [(46, 47, 20), (46, 1505, 21), (1504, 1505, 22)]:
error_packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
ether_len_type=[(len_type >> 8) & 0xff, len_type & 0xff],
create_data_args=['step', (step, num_data_bytes)],
dropped=True
))
# Also do this for VLAN tagged frames
error_packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address, vlan_prio_tag=[0x81, 0x00, 0x00, 0x00],
ether_len_type=[(len_type >> 8) & 0xff, len_type & 0xff],
create_data_args=['step', (step, num_data_bytes)],
dropped=True
))
# Part B - Part A with valid frames before/after the errror frame
packets = []
for packet in error_packets:
packets.append(packet)
ifg = tx_clk.get_min_ifg()
for i,packet in enumerate(error_packets):
# First valid frame (allowing time to process previous two valid frames)
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (i%10, choose_small_frame_size(rand))],
inter_frame_gap=2*packet_processing_time(tx_phy, 46, mac)
))
# Take a copy to ensure that the original is not modified
packet_copy = copy.deepcopy(packet)
# Error frame after minimum IFG
packet_copy.set_ifg(ifg)
packets.append(packet_copy)
# Second valid frame with minimum IFG
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (2 * ((i+1)%10), choose_small_frame_size(rand))],
inter_frame_gap=ifg
))
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__, seed)
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
packets = []
ifg = tx_clk.get_min_ifg()
# Part A - Ensure that two packets separated by minimum IFG are received ok
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=[
'step',
(rand.randint(1, 254), choose_small_frame_size(rand))
]))
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=[
'step',
(rand.randint(1, 254), choose_small_frame_size(rand))
],
inter_frame_gap=ifg))
# Part B - Determine the minimum IFG that can be supported
bit_time = ifg / 96
# Allow lots of time for the DUT to recover between test bursts
recovery_time = 4 * packet_processing_time(tx_phy, 46, mac)
# Test shrinking the IFG by different amounts. Use the shrink as the step for debug purposes
for gap_shrink in [5, 10]:
new_ifg = ifg - gap_shrink * bit_time
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=[
'step', (gap_shrink, choose_small_frame_size(rand))
],
inter_frame_gap=recovery_time))
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=[
'step', (gap_shrink, choose_small_frame_size(rand))
],
inter_frame_gap=new_ifg))
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__,
seed)
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
error_packets = []
# Part A - Invalid SFD nibble: use preamble nibble (0x5)
error_packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
sfd_nibble=0x5,
create_data_args=['step', (19, choose_small_frame_size(rand))],
dropped=True
))
# Part B - Invalid SFD: replace last byte of preamble with 0x9 instead of 0x5
error_packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
preamble_nibbles=[0x5 for x in range(14)] + [0x9],
create_data_args=['step', (20, choose_small_frame_size(rand))],
dropped=True
))
# Part C - Parts A and B with valid frames before/after the errror frame
packets = []
for packet in error_packets:
packets.append(packet)
ifg = tx_clk.get_min_ifg()
for i,packet in enumerate(error_packets):
# First valid frame (allowing time to process previous two valid frames)
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (i%10, choose_small_frame_size(rand))],
inter_frame_gap=2*packet_processing_time(tx_phy, 46, mac)
))
# Take a copy to ensure that the original is not modified
packet_copy = copy.deepcopy(packet)
# Error frame after minimum IFG
packet_copy.set_ifg(ifg)
packets.append(packet_copy)
# Second valid frame with minimum IFG
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (2 * ((i+1)%10), choose_small_frame_size(rand))],
inter_frame_gap=ifg
))
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__, seed)
def do_test(arch, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dev_address = get_dut_address()
ep = 0
# The inter-frame gap is to give the DUT time to print its output
packets = []
AppendSetupToken(packets, ep)
packets.append(TxDataPacket(rand, length=3, pid=3, bad_crc=True))
#packets.append(RxHandshakePacket())
AppendSetupToken(packets, ep)
packets.append(TxDataPacket(rand, length=8, pid=3, bad_crc=False))
packets.append(RxHandshakePacket(timeout=11))
# Note, quite big gap to allow checking.
packets.append(
TokenPacket(
inter_pkt_gap=2000,
pid=0xe1, #OUT
address=dev_address,
endpoint=ep))
packets.append(TxDataPacket(rand, length=10, pid=0xb))
packets.append(RxHandshakePacket())
packets.append(
TokenPacket(
inter_pkt_gap=2000,
pid=0x69, #OUT
address=dev_address,
endpoint=ep))
#Expect 0-length
packets.append(RxDataPacket(rand, length=0, pid=0x4b))
# Send ACK
packets.append(TxHandshakePacket())
do_rx_test(arch,
tx_clk,
tx_phy,
packets,
__file__,
seed,
level='smoke',
extra_tasks=[])
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
excess_pad_packets = []
# Part A - excessive pad
processing_time = 0
# These packets should not be dropped (though the standard is ambiguous). The length, however
# should be reported as the length specified in the len/type field.
for (num_data_bytes, len_type, step) in [(47, 46, 20), (1504, 46, 21), (1504, 1503, 22)]:
excess_pad_packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
ether_len_type=[(len_type >> 8) & 0xff, len_type & 0xff],
create_data_args=['step', (step, num_data_bytes)],
inter_frame_gap=processing_time
))
# Update packet processing time so that next packet leaves enough time before starting
processing_time = packet_processing_time(tx_phy, num_data_bytes, mac)
# Part B - Part A with valid frames before/after the errror frame
packets = []
for packet in excess_pad_packets:
packets.append(packet)
ifg = tx_clk.get_min_ifg()
for i,packet in enumerate(excess_pad_packets):
# First valid frame (allowing time to process previous two valid frames)
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (i%10, choose_small_frame_size(rand))],
inter_frame_gap=2*packet_processing_time(tx_phy, 46, mac) + packet_processing_time(tx_phy, 1518, mac)
))
# Take a copy to ensure that the original is not modified
packet_copy = copy.deepcopy(packet)
# Error frame after minimum IFG
packet_copy.set_ifg(ifg)
packets.append(packet_copy)
# Second valid frame with minimum IFG
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (2 * ((i+1)%10), choose_small_frame_size(rand))],
inter_frame_gap=ifg
))
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__, seed)
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
packets = []
# Part A - Test the sending of all valid size untagged frames
processing_time = packet_processing_time(tx_phy, 46, mac)
for num_data_bytes in [46, choose_small_frame_size(rand), 1500]:
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=[
'step', (rand.randint(1, 254), num_data_bytes)
],
inter_frame_gap=processing_time))
processing_time = packet_processing_time(tx_phy, num_data_bytes, mac)
# Part B - Test the sending of sub 46 bytes of data in the length field but valid minimum packet sizes
# The packet sizes longer than this are covered by Part A
for len_type in [1, 2, 3, 4, 15, 45]:
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
ether_len_type=[(len_type >> 8) & 0xff, len_type & 0xff],
create_data_args=['step', (rand.randint(1, 254), 46)],
inter_frame_gap=packet_processing_time(tx_phy, 46, mac)))
# Part C - Test the sending of all valid size tagged frames
processing_time = packet_processing_time(tx_phy, 46, mac)
for num_data_bytes in [42, choose_small_frame_size(rand), 1500]:
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
vlan_prio_tag=[0x81, 0x00, 0x00, 0x00],
create_data_args=[
'step', (rand.randint(1, 254), num_data_bytes)
],
inter_frame_gap=processing_time))
processing_time = packet_processing_time(tx_phy, num_data_bytes, mac)
# Part D
# Not supporting 802.3-2012, so no envelope frames
# Part E
# Not doing half duplex 1000Mb/s, so don't test this
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__,
seed)
def do_test(arch, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dev_address = get_dut_address()
ep = 0
# The inter-frame gap is to give the DUT time to print its output
packets = []
AppendSetupToken(packets, ep)
# DATA0 data packet with bad CRC
packets.append(TxDataPacket(rand, length=8, pid=3, bad_crc=True))
# Dont expect an ACK due to bad CRC
#packets.append(RxHandshakePacket())
AppendSetupToken(packets, ep, inter_pkt_gap=400)
packets.append(TxDataPacket(rand, length=8, pid=3, bad_crc=False))
packets.append(RxHandshakePacket(timeout=11))
# Note, quite big gap to allow checking.
AppendOutToken(packets, ep, inter_pkt_gap=2000)
packets.append(TxDataPacket(rand, length=10, pid=0xb))
packets.append(RxHandshakePacket())
#IN
AppendInToken(packets, ep, inter_pkt_gap=500)
#Expect 0-length
packets.append(RxDataPacket(rand, length=0, pid=0x4b))
# Send ACK
packets.append(TxHandshakePacket())
do_rx_test(arch,
tx_clk,
tx_phy,
packets,
__file__,
seed,
level='smoke',
extra_tasks=[])
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
broadcast_mac_address = [0xff, 0xff, 0xff, 0xff, 0xff, 0xff]
# The inter-frame gap is to give the DUT time to print its output
packets = []
for mac_address in [dut_mac_address, broadcast_mac_address]:
packets.append(MiiPacket(rand,
dst_mac_addr=mac_address,
create_data_args=['step', (1, 72)]
))
packets.append(MiiPacket(rand,
dst_mac_addr=mac_address,
create_data_args=['step', (5, 52)],
inter_frame_gap=packet_processing_time(tx_phy, 72, mac)
))
packets.append(MiiPacket(rand,
dst_mac_addr=mac_address,
create_data_args=['step', (7, 1500)],
inter_frame_gap=packet_processing_time(tx_phy, 52, mac)
))
# Send enough basic frames to ensure the buffers in the DUT have wrapped
for i in range(11):
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (i, 1500)],
inter_frame_gap=packet_processing_time(tx_phy, 1500, mac)
))
do_error = True
# The gigabit RGMII can't handle spurious errors
if tx_clk.get_rate() == Clock.CLK_125MHz:
do_error = False
error_driver = TxError(tx_phy, do_error)
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__, seed,
level='smoke', extra_tasks=[error_driver])
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
packets = []
# Part A - Test the sending of all valid size untagged frames
processing_time = packet_processing_time(tx_phy, 46, mac)
for num_data_bytes in [46, choose_small_frame_size(rand), 1500]:
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (rand.randint(1, 254), num_data_bytes)],
inter_frame_gap=processing_time
))
processing_time = packet_processing_time(tx_phy, num_data_bytes, mac)
# Part B - Test the sending of sub 46 bytes of data in the length field but valid minimum packet sizes
# The packet sizes longer than this are covered by Part A
for len_type in [1, 2, 3, 4, 15, 45]:
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
ether_len_type=[(len_type >> 8) & 0xff, len_type & 0xff],
create_data_args=['step', (rand.randint(1, 254), 46)],
inter_frame_gap=packet_processing_time(tx_phy, 46, mac)
))
# Part C - Test the sending of all valid size tagged frames
processing_time = packet_processing_time(tx_phy, 46, mac)
for num_data_bytes in [42, choose_small_frame_size(rand), 1500]:
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
vlan_prio_tag=[0x81, 0x00, 0x00, 0x00],
create_data_args=['step', (rand.randint(1, 254), num_data_bytes)],
inter_frame_gap=processing_time
))
processing_time = packet_processing_time(tx_phy, num_data_bytes, mac)
# Part D
# Not supporting 802.3-2012, so no envelope frames
# Part E
# Not doing half duplex 1000Mb/s, so don't test this
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__, seed)
def do_test(arch, clk, phy, seed):
rand = random.Random()
rand.seed(seed)
ep = 2
# The inter-frame gap is to give the DUT time to print its output
packets = []
dataval = 0
AppendOutToken(packets, ep)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=10, pid=0x3)) #DATA0
# Note, quite big gap to allow checking.
dataval += 10
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=11, pid=0x3)) #DATA0
dataval += 11
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=12, pid=0x3)) #DATA0
dataval += 12
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=13, pid=0x3)) #DATA0
dataval += 13
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=14, pid=0x3)) #DATA0
do_rx_test(arch,
clk,
phy,
packets,
__file__,
seed,
level='smoke',
extra_tasks=[])
def do_test(arch, clk, phy, seed):
rand = random.Random()
rand.seed(seed)
ep = 3
packets = []
data_val = 0
pkt_length = 20
data_pid = 0x3 #DATA0
for pkt_length in range(10, 20):
# < 17 fails for SI
# < 37 fails for DI
AppendOutToken(packets, ep, inter_pkt_gap=37)
packets.append(
TxDataPacket(rand,
data_start_val=data_val,
length=pkt_length,
pid=data_pid)) #DATA0
# 9 works for SI
packets.append(RxHandshakePacket(timeout=10))
AppendInToken(packets, ep, inter_pkt_gap=0)
packets.append(
RxDataPacket(rand,
data_start_val=data_val,
length=pkt_length,
pid=data_pid))
packets.append(TxHandshakePacket())
data_val = data_val + pkt_length
data_pid = data_pid ^ 8
do_rx_test(arch,
clk,
phy,
packets,
__file__,
seed,
level='smoke',
extra_tasks=[])
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
packets = []
ifg = tx_clk.get_min_ifg()
# Part A - Ensure that two packets separated by minimum IFG are received ok
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (rand.randint(1, 254), choose_small_frame_size(rand))]
))
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (rand.randint(1, 254), choose_small_frame_size(rand))],
inter_frame_gap=ifg
))
# Part B - Determine the minimum IFG that can be supported
bit_time = ifg/96
# Allow lots of time for the DUT to recover between test bursts
recovery_time = 4*packet_processing_time(tx_phy, 46, mac)
# Test shrinking the IFG by different amounts. Use the shrink as the step for debug purposes
for gap_shrink in [5, 10]:
new_ifg = ifg - gap_shrink * bit_time
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (gap_shrink, choose_small_frame_size(rand))],
inter_frame_gap=recovery_time
))
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (gap_shrink, choose_small_frame_size(rand))],
inter_frame_gap=new_ifg
))
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__, seed)
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
packets = []
# Part A
packets.append(
MiiPacket(
rand,
create_data_args=['step', (3, choose_small_frame_size(rand))],
corrupt_crc=True,
dropped=True))
# Part B
packets.append(
MiiPacket(
rand,
create_data_args=['step', (4, choose_small_frame_size(rand))]))
packets.append(
MiiPacket(
rand,
inter_frame_gap=tx_clk.get_min_ifg(),
create_data_args=['step', (5, choose_small_frame_size(rand))],
corrupt_crc=True,
dropped=True))
packets.append(
MiiPacket(
rand,
inter_frame_gap=tx_clk.get_min_ifg(),
create_data_args=['step', (6, choose_small_frame_size(rand))]))
# Set all the destination MAC addresses to get through the filtering
for packet in packets:
packet.dst_mac_addr = dut_mac_address
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__,
seed)
def do_test(arch, clk, phy, seed):
rand = random.Random()
rand.seed(seed)
start_ep = 3
# The inter-frame gap is to give the DUT time to print its output
packets = []
data_val = 0;
pkt_length = 20
data_pid = 0x3 #DATA0
for pkt_length in range(10, 20):
#Single EP:
#317 lowest for valid data (SI)
#337 for initial DI version
#Multi EP:
#177 lowest for valid data (DI)
AppendInToken(packets, start_ep, inter_pkt_gap=177)
packets.append(RxDataPacket(rand, data_start_val=data_val, length=pkt_length, pid=data_pid))
packets.append(TxHandshakePacket())
AppendInToken(packets, start_ep+1, inter_pkt_gap=177)
packets.append(RxDataPacket(rand, data_start_val=data_val, length=pkt_length, pid=data_pid))
packets.append(TxHandshakePacket())
AppendInToken(packets, start_ep+2, inter_pkt_gap=177)
packets.append(RxDataPacket(rand, data_start_val=data_val, length=pkt_length, pid=data_pid))
packets.append(TxHandshakePacket())
AppendInToken(packets, start_ep+3, inter_pkt_gap=177)
packets.append(RxDataPacket(rand, data_start_val=data_val, length=pkt_length, pid=data_pid))
packets.append(TxHandshakePacket())
data_val = data_val + pkt_length
data_pid = data_pid ^ 8
do_rx_test(arch, clk, phy, packets, __file__, seed,
level='smoke', extra_tasks=[])
def do_test(arch, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
ep = 0
# The inter-frame gap is to give the DUT time to print its output
packets = []
# SETUP transaction
AppendSetupToken(packets, ep)
packets.append(TxDataPacket(rand, length=8, pid=3))
packets.append(RxHandshakePacket(timeout=11))
# IN transaction
# Note, quite big gap to allow checking.
packets.append(TokenPacket(
inter_pkt_gap=2000,
pid=0x69, #IN
endpoint=ep))
packets.append(RxDataPacket(rand, length=10, pid=0x4b))
packets.append(TxHandshakePacket())
# Send 0 length OUT transaction
packets.append(TokenPacket(
inter_pkt_gap=2000,
pid=0xe1, #OUT
endpoint=ep))
packets.append(TxDataPacket(rand, length=0, pid=0xb))
packets.append(RxHandshakePacket())
# Send ACK
packets.append(TxHandshakePacket())
do_rx_test(arch,
tx_clk,
tx_phy,
packets,
__file__,
seed,
level='smoke',
extra_tasks=[])
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
packets = []
# Part A
packets.append(MiiPacket(rand,
create_data_args=['step', (3, choose_small_frame_size(rand))],
corrupt_crc=True,
dropped=True
))
# Part B
packets.append(MiiPacket(rand,
create_data_args=['step', (4, choose_small_frame_size(rand))]
))
packets.append(MiiPacket(rand,
inter_frame_gap=tx_clk.get_min_ifg(),
create_data_args=['step', (5, choose_small_frame_size(rand))],
corrupt_crc=True,
dropped=True
))
packets.append(MiiPacket(rand,
inter_frame_gap=tx_clk.get_min_ifg(),
create_data_args=['step', (6, choose_small_frame_size(rand))]
))
# Set all the destination MAC addresses to get through the filtering
for packet in packets:
packet.dst_mac_addr = dut_mac_address
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__, seed)
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
packets = []
# Part A - Send different length preambles and ensure the packets are still received
# Check a selection of preamble lengths from 1 byte to 64 bytes (including SFD)
test_lengths = [3, 4, 5, 61, 127]
if tx_clk.get_rate() == Clock.CLK_125MHz:
# The RGMII requires a longer preamble
test_lengths = [5, 7, 9, 61, 127]
for num_preamble_nibbles in test_lengths:
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
num_preamble_nibbles=num_preamble_nibbles,
create_data_args=['step', (rand.randint(1, 254), choose_small_frame_size(rand))],
inter_frame_gap=packet_processing_time(tx_phy, 46, mac)
))
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__, seed)
def do_test(arch, clk, phy, seed):
rand = random.Random()
rand.seed(seed)
ep = 3
# The inter-frame gap is to give the DUT time to print its output
packets = []
data_val = 0
pkt_length = 20
data_pid = 0x3 #DATA0
for pkt_length in range(10, 20):
#317 lowest for valid data (non-dual issue version)
#337 for initial dual-issue version
AppendInToken(packets, ep, inter_pkt_gap=337)
packets.append(
RxDataPacket(rand,
data_start_val=data_val,
length=pkt_length,
pid=data_pid))
packets.append(TxHandshakePacket())
data_val = data_val + pkt_length
data_pid = data_pid ^ 8
do_rx_test(arch,
clk,
phy,
packets,
__file__,
seed,
level='smoke',
extra_tasks=[])
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
# Part A
error_packets = []
# Test Frame 1 - Fragments (no SFD, no valid CRC)
max_fragment_len = 143
if tx_clk.get_rate == Clock.CLK_125MHz:
max_fragment_len = 142
# Incrememnt is meant to be 1, but for pragmatic reasons just test a subset of options (range(2, max_fragment_len, 1))
for m in [2, max_fragment_len/3, max_fragment_len/2, max_fragment_len]:
error_packets.append(MiiPacket(rand,
num_preamble_nibbles=m, num_data_bytes=0,
sfd_nibble=None, dst_mac_addr=[], src_mac_addr=[], ether_len_type=[],
send_crc_word=False,
dropped=True
))
# Test Frame 2 - Runts - undersized data with a valid CRC
# NOTES:
# - Take 4 off the data length to leave room for the CRC
# - The data contents will be the DUT MAC address when long enough to contain a dst address
# Incrememnt is meant to be 1, but for pragmatic reasons just test a subset of options (range(5, 45, 1))
for n in [5, 25, 45]:
error_packets.append(MiiPacket(rand,
dst_mac_addr=[], src_mac_addr=[], ether_len_type=[],
data_bytes=[(x & 0xff) for x in range(n - 4)],
dropped=True
))
# There should have been no errors logged by the MAC
#controller.dumpStats()
# Part B
# Test Frame 5 - send a 7-octect preamble
error_packets.append(MiiPacket(rand,
num_preamble_nibbles=15, num_data_bytes=0,
sfd_nibble=None, dst_mac_addr=[], src_mac_addr=[],
ether_len_type=[], send_crc_word=False,
dropped=True
))
# Test Frame 6 - send a 7-octect preamble with SFD
error_packets.append(MiiPacket(rand,
num_preamble_nibbles=15, num_data_bytes=0,
dst_mac_addr=[], src_mac_addr=[],
ether_len_type=[], send_crc_word=False,
dropped=True
))
# Test Frame 7 - send a 7-octect preamble with SFD and dest MAC
error_packets.append(MiiPacket(rand,
num_preamble_nibbles=15, num_data_bytes=6,
dst_mac_addr=dut_mac_address,
src_mac_addr=[], ether_len_type=[], send_crc_word=False,
dropped=True
))
# Test Frame 8 - send a 7-octect preamble with SFD, dest and src MAC
error_packets.append(MiiPacket(rand,
num_preamble_nibbles=15, num_data_bytes=12,
dst_mac_addr=dut_mac_address,
ether_len_type=[], send_crc_word=False,
dropped=True
))
# There should have been no errors logged by the MAC
#controller.dumpStats()
# Part C
# Don't support flow control - so don't run
# Part D
# Parts A & B with valid frames before/after the errror frame
packets = []
for packet in error_packets:
packets.append(packet)
ifg = tx_clk.get_min_ifg()
for i,packet in enumerate(error_packets):
# First valid frame (allowing time to process previous two valid frames)
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (i%10, 46)],
inter_frame_gap=2*packet_processing_time(tx_phy, 46, mac)
))
# Take a copy to ensure that the original is not modified
packet_copy = copy.deepcopy(packet)
# Error frame after minimum IFG
packet_copy.set_ifg(ifg)
packets.append(packet_copy)
# Second valid frame with minimum IFG
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (2 * ((i+1)%10), 46)],
inter_frame_gap=ifg
))
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__, seed)
def do_test(arch, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dev_address = get_dut_address()
ep = 1
# The inter-frame gap is to give the DUT time to print its output
packets = []
dataval = 0
AppendOutToken(packets, ep)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=10, pid=0x3)) #DATA0
packets.append(RxHandshakePacket())
# Assert RxError during packet
dataval += 10
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand,
data_start_val=dataval,
length=11,
pid=0xb,
rxe_assert_time=5)) #DATA1
# xCORE should ignore the packet and not handshake...
#packets.append(RxHandshakePacket())
# Re-send..
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand,
data_start_val=dataval,
length=11,
pid=0xb,
rxe_assert_time=0)) #DATA1
packets.append(RxHandshakePacket())
dataval += 11
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=12, pid=0x3)) #DATA0
packets.append(RxHandshakePacket(timeout=9))
dataval += 12
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand,
data_start_val=dataval,
length=13,
pid=0xb,
rxe_assert_time=1)) #DATA1
#packets.append(RxHandshakePacket())
#resend
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=13, pid=0xb)) #DATA1
packets.append(RxHandshakePacket())
dataval += 13
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(
TxDataPacket(rand, data_start_val=dataval, length=14, pid=0x3)) #DATA0
packets.append(RxHandshakePacket())
do_rx_test(arch,
tx_clk,
tx_phy,
packets,
__file__,
seed,
level='smoke',
extra_tasks=[])
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
error_packets = []
# Part A - length errors (len/type field value greater than actual data length)
for (num_data_bytes, len_type, step) in [(46, 47, 20), (46, 1505, 21),
(1504, 1505, 22)]:
error_packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
ether_len_type=[(len_type >> 8) & 0xff, len_type & 0xff],
create_data_args=['step', (step, num_data_bytes)],
dropped=True))
# Also do this for VLAN tagged frames
error_packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
vlan_prio_tag=[0x81, 0x00, 0x00, 0x00],
ether_len_type=[(len_type >> 8) & 0xff, len_type & 0xff],
create_data_args=['step', (step, num_data_bytes)],
dropped=True))
# Part B - Part A with valid frames before/after the errror frame
packets = []
for packet in error_packets:
packets.append(packet)
ifg = tx_clk.get_min_ifg()
for i, packet in enumerate(error_packets):
# First valid frame (allowing time to process previous two valid frames)
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=[
'step', (i % 10, choose_small_frame_size(rand))
],
inter_frame_gap=2 *
packet_processing_time(tx_phy, 46, mac)))
# Take a copy to ensure that the original is not modified
packet_copy = copy.deepcopy(packet)
# Error frame after minimum IFG
packet_copy.set_ifg(ifg)
packets.append(packet_copy)
# Second valid frame with minimum IFG
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=[
'step',
(2 * ((i + 1) % 10), choose_small_frame_size(rand))
],
inter_frame_gap=ifg))
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__,
seed)
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
error_packets = []
# Test that packets where the RXER line goes high are dropped even
# if the rest of the packet is valid
# Error on the first nibble of the preamble
num_data_bytes = choose_small_frame_size(rand)
error_packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
num_data_bytes=num_data_bytes,
error_nibbles=[0],
dropped=True
))
# Error somewhere in the middle of the packet
num_data_bytes = choose_small_frame_size(rand)
error_packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
num_data_bytes=num_data_bytes,
dropped=True
))
packet = error_packets[-1]
error_nibble = rand.randint(packet.num_preamble_nibbles + 1, len(packet.get_nibbles()))
packet.error_nibbles = [error_nibble]
# Due to BUG 16233 the RGMII code won't always detect an error in the last two bytes
num_data_bytes = choose_small_frame_size(rand)
error_packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
num_data_bytes=num_data_bytes,
dropped=True
))
packet = error_packets[-1]
packet.error_nibbles = [len(packet.get_nibbles()) - 5]
# Now run all packets with valid frames before/after the errror frame to ensure the
# errors don't interfere with valid frames
packets = []
for packet in error_packets:
packets.append(packet)
ifg = tx_clk.get_min_ifg()
for i,packet in enumerate(error_packets):
# First valid frame (allowing time to process previous two valid frames)
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (i%10, choose_small_frame_size(rand))],
inter_frame_gap=3*packet_processing_time(tx_phy, 46, mac)
))
# Take a copy to ensure that the original is not modified
packet_copy = copy.deepcopy(packet)
# Error frame after minimum IFG
packet_copy.set_ifg(ifg)
packets.append(packet_copy)
# Second valid frame with minimum IFG
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (2 * ((i+1)%10), choose_small_frame_size(rand))],
inter_frame_gap=ifg
))
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__, seed)
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
error_packets = []
# Part A - Invalid preamble nibbles, but the frame should still be received
preamble_nibbles = [0x5, 0x5, 0x0, 0x0, 0x0, 0x0, 0x0, 0x0, 0x0, 0x0, 0x0, 0x0, 0x0, 0x0, 0x5]
if tx_clk.get_rate() == Clock.CLK_125MHz:
preamble_nibbles = [0x5, 0x5, 0x5, 0x5, 0x0, 0x0, 0x0, 0x0, 0x0, 0x0, 0x0, 0x0, 0x0, 0x0, 0x5]
error_packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
preamble_nibbles=preamble_nibbles,
create_data_args=['step', (rand.randint(1, 254), choose_small_frame_size(rand))]
))
# Part B - Invalid preamble nibbles, but the packet should still be received
preamble_nibbles = [0x5, 0x5, 0xf, 0xf, 0xf, 0xf, 0xf, 0xf, 0xf, 0xf, 0xf, 0xf, 0xf, 0xf, 0x5]
if tx_clk.get_rate() == Clock.CLK_125MHz:
preamble_nibbles = [0x5, 0x5, 0x5, 0x5, 0xf, 0xf, 0xf, 0xf, 0xf, 0xf, 0xf, 0xf, 0xf, 0xf, 0x5]
error_packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
preamble_nibbles=preamble_nibbles,
create_data_args=['step', (rand.randint(1, 254), choose_small_frame_size(rand))],
inter_frame_gap=packet_processing_time(tx_phy, 46, mac)
))
# Part C - Invalid preamble nibbles, but the packet should still be received
preamble_nibbles = [0x5, 0x5, 0x5, 0x5, 0x5, 0x5, 0x5, 0x5, 0x5, 0x5, 0x5, 0x8, 0x5, 0xf, 0x5]
error_packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
preamble_nibbles=preamble_nibbles,
create_data_args=['step', (rand.randint(1, 254), choose_small_frame_size(rand))],
inter_frame_gap=packet_processing_time(tx_phy, 46, mac)
))
# Part D - Parts A, B and C with valid frames before/after the errror frame
packets = []
for packet in error_packets:
packets.append(packet)
ifg = tx_clk.get_min_ifg()
for i,packet in enumerate(error_packets):
# First valid frame (allowing time to process previous two valid frames)
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (i%10, choose_small_frame_size(rand))],
inter_frame_gap=3*packet_processing_time(tx_phy, 46, mac)
))
# Take a copy to ensure that the original is not modified
packet_copy = copy.deepcopy(packet)
# Error frame after minimum IFG
packet_copy.set_ifg(ifg)
packets.append(packet_copy)
# Second valid frame with minimum IFG
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (2 * ((i+1)%10), choose_small_frame_size(rand))],
inter_frame_gap=ifg
))
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__, seed)
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
packets = []
error_packets = []
# Part A - untagged frame
# Valid maximum size untagged frame (1500 data + 18 header & CRC bytes)
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (1, 1500)]))
# Oversized untagged frame - one byte too big for the 1522 bytes allowed per frame
packet = MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (2, 1505)],
inter_frame_gap=packet_processing_time(
tx_phy, 1500, mac),
dropped=True)
packets.append(packet)
error_packets.append(packet)
# Oversized untagged frame - too big for the 1522 bytes allowed per frame
packet = MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (3, 1600)],
inter_frame_gap=packet_processing_time(
tx_phy, 1500, mac),
dropped=True)
packets.append(packet)
error_packets.append(packet)
# Part B - VLAN/Prio tagged frame
vlan_prio_tag = [0x81, 0x00, 0x00, 0x00]
# Valid maximum size tagged frame (1500 data + 22 header & CRC bytes)
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
vlan_prio_tag=vlan_prio_tag,
create_data_args=['step', (10, 1500)]))
# Oversized tagged frame - just one byte too big
packet = MiiPacket(rand,
dst_mac_addr=dut_mac_address,
vlan_prio_tag=vlan_prio_tag,
create_data_args=['step', (11, 1501)],
inter_frame_gap=packet_processing_time(
tx_phy, 1500, mac),
dropped=True)
packets.append(packet)
error_packets.append(packet)
# Oversized tagged frame
packet = MiiPacket(rand,
dst_mac_addr=dut_mac_address,
vlan_prio_tag=vlan_prio_tag,
create_data_args=['step', (12, 1549)],
inter_frame_gap=packet_processing_time(
tx_phy, 1500, mac),
dropped=True)
packets.append(packet)
error_packets.append(packet)
# Part C
# TODO - oversized envelope frame
# Part D
# Don't support flow control - so don't run
# Part E
# Parts A - C with valid frames before/after the errror frame
ifg = tx_clk.get_min_ifg()
for i, packet in enumerate(error_packets):
# First valid frame (allowing time to process previous two valid frames)
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=[
'step', (i % 10, choose_small_frame_size(rand))
],
inter_frame_gap=2 *
packet_processing_time(tx_phy, 46, mac)))
# Take a copy to ensure that the original is not modified
packet_copy = copy.deepcopy(packet)
# Error frame after minimum IFG
packet_copy.set_ifg(ifg)
packets.append(packet_copy)
# Second valid frame with minimum IFG
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=[
'step',
(2 * ((i + 1) % 10), choose_small_frame_size(rand))
],
inter_frame_gap=ifg))
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__,
seed)
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
packets = []
error_packets = []
# Part A - untagged frame
# Valid maximum size untagged frame (1500 data + 18 header & CRC bytes)
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address, create_data_args=['step', (1, 1500)]
))
# Oversized untagged frame - one byte too big for the 1522 bytes allowed per frame
packet = MiiPacket(rand,
dst_mac_addr=dut_mac_address, create_data_args=['step', (2, 1505)],
inter_frame_gap=packet_processing_time(tx_phy, 1500, mac),
dropped=True
)
packets.append(packet)
error_packets.append(packet)
# Oversized untagged frame - too big for the 1522 bytes allowed per frame
packet = MiiPacket(rand,
dst_mac_addr=dut_mac_address, create_data_args=['step', (3, 1600)],
inter_frame_gap=packet_processing_time(tx_phy, 1500, mac),
dropped=True
)
packets.append(packet)
error_packets.append(packet)
# Part B - VLAN/Prio tagged frame
vlan_prio_tag = [0x81, 0x00, 0x00, 0x00]
# Valid maximum size tagged frame (1500 data + 22 header & CRC bytes)
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address, vlan_prio_tag=vlan_prio_tag,
create_data_args=['step', (10, 1500)]
))
# Oversized tagged frame - just one byte too big
packet = MiiPacket(rand,
dst_mac_addr=dut_mac_address, vlan_prio_tag=vlan_prio_tag,
create_data_args=['step', (11, 1501)],
inter_frame_gap=packet_processing_time(tx_phy, 1500, mac),
dropped=True
)
packets.append(packet)
error_packets.append(packet)
# Oversized tagged frame
packet = MiiPacket(rand,
dst_mac_addr=dut_mac_address, vlan_prio_tag=vlan_prio_tag,
create_data_args=['step', (12, 1549)],
inter_frame_gap=packet_processing_time(tx_phy, 1500, mac),
dropped=True
)
packets.append(packet)
error_packets.append(packet)
# Part C
# TODO - oversized envelope frame
# Part D
# Don't support flow control - so don't run
# Part E
# Parts A - C with valid frames before/after the errror frame
ifg = tx_clk.get_min_ifg()
for i,packet in enumerate(error_packets):
# First valid frame (allowing time to process previous two valid frames)
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (i%10, choose_small_frame_size(rand))],
inter_frame_gap=2*packet_processing_time(tx_phy, 46, mac)
))
# Take a copy to ensure that the original is not modified
packet_copy = copy.deepcopy(packet)
# Error frame after minimum IFG
packet_copy.set_ifg(ifg)
packets.append(packet_copy)
# Second valid frame with minimum IFG
packets.append(MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=['step', (2 * ((i+1)%10), choose_small_frame_size(rand))],
inter_frame_gap=ifg
))
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__, seed)
def do_test(arch, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dev_address = get_dut_address()
ep = 1
# The inter-frame gap is to give the DUT time to print its output
packets = []
dataval = 0;
# Reserved PID
packets.append(TokenPacket(
inter_pkt_gap=2000,
pid=0x0,
address=dev_address,
endpoint=ep))
# Valid IN but not for us..
packets.append(TokenPacket(
inter_pkt_gap=200,
pid=0x69,
address=dev_address,
endpoint=ep,
valid=False))
# Valid OUT but not for us..
packets.append(TokenPacket(
inter_pkt_gap=200,
pid=0xe1,
address=dev_address,
endpoint=ep,
valid=False))
AppendOutToken(packets, ep)
packets.append(TxDataPacket(rand, data_start_val=dataval, length=10, pid=0x3)) #DATA0
packets.append(RxHandshakePacket())
# Valid SETUP but not for us..
packets.append(TokenPacket(
inter_pkt_gap=200,
pid=0x2d,
address=dev_address,
endpoint=ep,
valid=False))
# Note, quite big gap to allow checking.
dataval += 10
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(TxDataPacket(rand, data_start_val=dataval, length=11, pid=0xb)) #DATA1
packets.append(RxHandshakePacket())
# Valid PING but not for us..
packets.append(TokenPacket(
inter_pkt_gap=200,
pid=0xb4,
address=dev_address,
endpoint=ep,
valid=False))
dataval += 11
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(TxDataPacket(rand, data_start_val=dataval, length=12, pid=0x3)) #DATA0
packets.append(RxHandshakePacket())
dataval += 12
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(TxDataPacket(rand, data_start_val=dataval, length=13, pid=0xb)) #DATA1
packets.append(RxHandshakePacket())
dataval += 13
AppendOutToken(packets, ep, inter_pkt_gap=6000)
packets.append(TxDataPacket(rand, data_start_val=dataval, length=14, pid=0x3)) #DATA0
packets.append(RxHandshakePacket())
do_rx_test(arch, tx_clk, tx_phy, packets, __file__, seed,
level='smoke', extra_tasks=[])
def do_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, seed):
rand = random.Random()
rand.seed(seed)
dut_mac_address = get_dut_mac_address()
error_packets = []
# Part A - maximum jabber size packet
# Use a valid ether type as the type/len field can't encode the length
ether_type_ip = [0x08, 0x00]
# Jabber lengths as defined for 10Mb/s & 100Mb/s
jabber_length = 9367
if tx_clk.get_rate() == Clock.CLK_125MHz:
# Length for 1000Mb/s
jabber_length = 18742
error_packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
ether_len_type=ether_type_ip,
num_preamble_nibbles=7,
create_data_args=['step', (17, jabber_length)],
dropped=True))
# Part B - Part A with valid frames before/after the errror frame
packets = []
for packet in error_packets:
packets.append(packet)
ifg = tx_clk.get_min_ifg()
for i, packet in enumerate(error_packets):
# First valid frame (allowing time to process previous two valid frames)
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=[
'step', (i % 10, choose_small_frame_size(rand))
],
inter_frame_gap=2 *
packet_processing_time(tx_phy, 46, mac)))
# Take a copy to ensure that the original is not modified
packet_copy = copy.deepcopy(packet)
# Error frame after minimum IFG
packet_copy.set_ifg(ifg)
packets.append(packet_copy)
# Second valid frame with minimum IFG
packets.append(
MiiPacket(rand,
dst_mac_addr=dut_mac_address,
create_data_args=[
'step',
(2 * ((i + 1) % 10), choose_small_frame_size(rand))
],
inter_frame_gap=ifg))
do_rx_test(mac, arch, rx_clk, rx_phy, tx_clk, tx_phy, packets, __file__,
seed)
