def runTest(opt):
d = pyxrt.device(opt.index)
xbin = pyxrt.xclbin(opt.bitstreamFile)
uuid = d.load_xclbin(xbin)
memlist = xbin.get_mems()
for m in memlist:
if (m.get_used() == False):
continue;
runMemTest(opt, d, m);
def runKernel(opt):
result = 0
d = pyxrt.device(opt.index)
uuid = d.load_xclbin(opt.bitstreamFile)
# Instantiate vectorswizzle
swizzle = pyxrt.kernel(d, uuid, "vectorswizzle")
elem_num = 4096
size = ctypes.sizeof(ctypes.c_int) * elem_num
obj = pyxrt.bo(d, size, pyxrt.bo.normal, swizzle.group_id(0))
buf = numpy.asarray(obj.map())
# Compute golden values
reference = []
for idx in range(elem_num):
remainder = idx % 4
buf[idx] = idx
if remainder == 0:
reference.append(idx + 2)
if remainder == 1:
reference.append(idx + 2)
if remainder == 2:
reference.append(idx - 2)
if remainder == 3:
reference.append(idx - 2)
obj.sync(pyxrt.xclBOSyncDirection.XCL_BO_SYNC_BO_TO_DEVICE, size, 0)
# Create a run object without starting kernel
run = pyxrt.run(swizzle)
global_dim = [size // 4, 0]
# int4 vector count global range
local_dim = [16, 0]
# int4 vector count global range
group_size = global_dim[0] // local_dim[0]
# Run swizzle with 16 (local[0]) elements at a time
# Each element is an int4 (sizeof(int) * 4 bytes)
# Create sub buffer to offset kernel argument in parent buffer
local_size_bytes = local_dim[0] * ctypes.sizeof(ctypes.c_int) * 4
for id in range(group_size):
subobj = pyxrt.bo(obj, local_size_bytes, local_size_bytes * id)
run.set_arg(0, subobj)
run.start()
state = run.state()
state = run.wait(5)
obj.sync(pyxrt.xclBOSyncDirection.XCL_BO_SYNC_BO_FROM_DEVICE, size, 0)
print("Compare the FPGA results with golden data")
for idx in range(elem_num):
assert (buf[idx] == reference[idx])
return 0
def runKernel(opt):
d = pyxrt.device(opt.index)
xbin = pyxrt.xclbin(opt.bitstreamFile)
uuid = d.load_xclbin(xbin)
kernellist = xbin.get_kernels()
rule = re.compile("hello*")
kernel = list(filter(lambda val: rule.match(val.get_name()),
kernellist))[0]
hello = pyxrt.kernel(d, uuid, kernel.get_name(), pyxrt.kernel.shared)
zeros = bytearray(opt.DATA_SIZE)
boHandle1 = pyxrt.bo(d, opt.DATA_SIZE, pyxrt.bo.normal, hello.group_id(0))
boHandle1.write(zeros, 0)
buf1 = boHandle1.map()
boHandle2 = pyxrt.bo(d, opt.DATA_SIZE, pyxrt.bo.normal, hello.group_id(0))
boHandle2.write(zeros, 0)
buf2 = boHandle2.map()
boHandle1.sync(pyxrt.xclBOSyncDirection.XCL_BO_SYNC_BO_TO_DEVICE,
opt.DATA_SIZE, 0)
boHandle2.sync(pyxrt.xclBOSyncDirection.XCL_BO_SYNC_BO_TO_DEVICE,
opt.DATA_SIZE, 0)
print("Original string = [%s]" % buf1[:64].tobytes())
print("Original string = [%s]" % buf2[:64].tobytes())
print("Issue kernel start requests")
run1 = hello(boHandle1)
run2 = hello(boHandle2)
print("Now wait for the kernels to finish using xrtRunWait()")
state1 = run1.wait(5)
state2 = run2.wait(5)
print("Get the output data produced by the 2 kernel runs from the device")
boHandle1.sync(pyxrt.xclBOSyncDirection.XCL_BO_SYNC_BO_FROM_DEVICE,
opt.DATA_SIZE, 0)
boHandle2.sync(pyxrt.xclBOSyncDirection.XCL_BO_SYNC_BO_FROM_DEVICE,
opt.DATA_SIZE, 0)
golden = memoryview(b'Hello World')
result1 = buf1[:len(golden)]
result2 = buf2[:len(golden)]
print("Result string = [%s]" % result1.tobytes())
print("Result string = [%s]" % result2.tobytes())
assert (result1 == golden), "Incorrect output from kernel"
assert (result2 == golden), "Incorrect output from kernel"
def runKernel(opt):
d = pyxrt.device(opt.index)
xbin = pyxrt.xclbin(opt.bitstreamFile)
uuid = d.load_xclbin(xbin)
COUNT = 1024
DATA_SIZE = ctypes.sizeof(ctypes.c_int32) * COUNT
# Instantiate simple
simple = pyxrt.kernel(d, uuid, "simple")
print("Allocate and initialize buffers")
boHandle1 = pyxrt.bo(d, DATA_SIZE, pyxrt.bo.normal, simple.group_id(0))
boHandle2 = pyxrt.bo(d, DATA_SIZE, pyxrt.bo.normal, simple.group_id(1))
bo1 = numpy.asarray(boHandle1.map())
bo2 = numpy.asarray(boHandle2.map())
for i in range(COUNT):
bo1[i] = 0
bo2[i] = i
bufReference = [i + i * 16 for i in range(COUNT)]
boHandle1.sync(pyxrt.xclBOSyncDirection.XCL_BO_SYNC_BO_TO_DEVICE,
DATA_SIZE, 0)
boHandle2.sync(pyxrt.xclBOSyncDirection.XCL_BO_SYNC_BO_TO_DEVICE,
DATA_SIZE, 0)
print("Start the kernel, simple")
run = simple(boHandle1, boHandle2, 0x10)
print("Now wait for the kernel simple to finish")
state = run.wait()
print("Get the output data from the device and validate it")
boHandle1.sync(pyxrt.xclBOSyncDirection.XCL_BO_SYNC_BO_FROM_DEVICE,
DATA_SIZE, 0)
assert (bufReference[:COUNT] == bo1[:COUNT]
), "Computed value does not match reference"
def main():
global g_refresh_rate
global g_report_number
# Get and validate the options
opt = options_parser()
g_refresh_rate = float(opt.s)
if g_refresh_rate < 1:
raise RuntimeError("Please specify a refresh rate greater than 1 second")
if g_refresh_rate > 60:
raise RuntimeError("Please specify a refresh rate less than 60 seconds")
dev = pyxrt.device(opt.bdf)
# Check the terminal size
term_size = get_terminal_size()
x_len = term_size.columns
y_len = term_size.lines
MIN_X = 100
MIN_Y = 44
if x_len < MIN_X or y_len < MIN_Y:
raise RuntimeError("Please resize the terminal window. The current size %dx%d is smaller then the required size of %dx%d" % (x_len, y_len, MIN_X, MIN_Y))
with XBUtil.Terminal() as term:
term.hide_cursor(True)
# creating a lock
lock = threading.Lock()
# Print the key
print_footer(term, lock, y_len)
# Running clock
t1 = threading.Thread(target=running_clock, args=(term, lock))
t1.daemon = True
t1.start()
# Running counter
t1 = threading.Thread(target=running_counter, args=(term, lock, x_len))
t1.daemon = True
t1.start()
# Running reports
t2 = threading.Thread(target=running_reports, args=(term, lock, dev, x_len))
t2.daemon = True
t2.start()
# Main thread that consumes the keys pressed by the user.
while True:
key = XBUtil.get_char()
if key in ['q', 'Q']:
break
if key in ['n', 'N']:
g_report_number += 1
if key in ['p', 'P']:
g_report_number -= 1
if key in ['+']: # Hidden option
g_refresh_rate += 1
if g_refresh_rate > 60:
g_refresh_rate = 60
if key in ['-']: # Hidden option
g_refresh_rate -= 1
if g_refresh_rate < 1:
g_refresh_rate = 1
def runKernel(opt):
d = pyxrt.device(opt.index)
xbin = pyxrt.xclbin(opt.bitstreamFile)
uuid = d.load_xclbin(xbin)
khandle1 = pyxrt.kernel(d, uuid, "bandwidth1", pyxrt.kernel.shared)
khandle2 = pyxrt.kernel(d, uuid, "bandwidth2", pyxrt.kernel.shared)
output_bo1, output_buf1 = getInputOutputBuffer(d, khandle1, 0, False)
output_bo2, output_buf2 = getInputOutputBuffer(d, khandle2, 0, False)
input_bo1, input_buf1 = getInputOutputBuffer(d, khandle1, 1, True)
input_bo2, input_buf2 = getInputOutputBuffer(d, khandle2, 1, True)
TYPESIZE = 512
threshold = getThreshold(d)
beats = 16
#lists
dnsduration = []
dsduration = []
dbytes = []
dmbytes = []
bpersec = []
mbpersec = []
#run tests with burst length 1 beat to DATASIZE
#double burst length each test
test=0
throughput = []
failed = False
while beats <= 1024 and not failed:
print("LOOP PIPELINE %d beats" %beats)
usduration = 0
fiveseconds = 5*1000000
reps = 64
while usduration < fiveseconds:
start = current_micro_time()
rhandle1 = khandle1(output_bo1, input_bo1, beats, reps)
rhandle2 = khandle2(output_bo2, input_bo2, beats, reps)
rhandle1.wait()
rhandle2.wait()
end = current_micro_time()
usduration = end - start
limit = beats * int(TYPESIZE / 8)
output_bo1.sync(pyxrt.xclBOSyncDirection.XCL_BO_SYNC_BO_FROM_DEVICE, limit, 0)
output_bo2.sync(pyxrt.xclBOSyncDirection.XCL_BO_SYNC_BO_FROM_DEVICE, limit, 0)
failed = (input_buf1[:limit] != output_buf1[:limit])
if (failed):
break
failed = (input_buf2[:limit] != output_buf2[:limit])
if (failed):
break
# print("Reps = %d, Beats = %d, Duration = %lf us" %(reps, beats, usduration)) # for debug
if usduration < fiveseconds:
reps = reps*2
dnsduration.append(usduration)
dsduration.append(dnsduration[test]/1000000.0)
dbytes.append(reps*beats*int(TYPESIZE / 8))
dmbytes.append(dbytes[test]/(1024 * 1024))
bpersec.append(2.0*dbytes[test]/dsduration[test])
mbpersec.append(2.0*bpersec[test]/(1024 * 1024))
throughput.append(mbpersec[test])
print("Test %d, Throughput: %d MB/s" %(test, throughput[test]))
beats = beats*4
test+=1
if failed:
raise RuntimeError("ERROR: Failed to copy entries")
print("TTTT: %d" %throughput[0])
print("Maximum throughput: %d MB/s" %max(throughput))
if max(throughput) < threshold:
raise RuntimeError("ERROR: Throughput is less than expected value of %d GB/sec" %(threshold/1000))