Beispiel #1
0
def digitiser_stop():
    print 'Stopping digitiser'
    fdig = KatcpClientFpga(dhost)
    if fdig.is_running():
        fdig.test_connection()
        fdig.get_system_information()
        fdig.registers.control.write(gbe_txen = False)
        fdig.deprogram()
    fdig.disconnect()
Beispiel #2
0
def digitiser_start(dig_tx_tuple):
    fdig = KatcpClientFpga(dhost)
    fdig.deprogram()
    stime = time.time()
    print 'Programming digitiser',
    sys.stdout.flush()
    fdig.upload_to_ram_and_program(dbof)
    print time.time() - stime
    fdig.test_connection()
    fdig.get_system_information()
    # stop sending data
    fdig.registers.control.write(gbe_txen = False)
    # start the local timer on the test d-engine - mrst, then a fake sync
    fdig.registers.control.write(mrst = 'pulse')
    fdig.registers.control.write(msync = 'pulse')
    # the all_fpgas have tengbe cores, so set them up
    ip_bits = dip_start.split('.')
    ipbase = int(ip_bits[3])
    mac_bits = dmac_start.split(':')
    macbase = int(mac_bits[5])
    for ctr in range(0,4):
        mac = '%s:%s:%s:%s:%s:%d' % (mac_bits[0], mac_bits[1], mac_bits[2], mac_bits[3], mac_bits[4], macbase + ctr)
        ip = '%s.%s.%s.%d' % (ip_bits[0], ip_bits[1], ip_bits[2], ipbase + ctr)
        fdig.tengbes['gbe%d' % ctr].setup(mac=mac, ipaddress=ip, port=7777)
    for gbe in fdig.tengbes:
        gbe.tap_start(True)
    # set the destination IP and port for the tx
    txaddr = dig_tx_tuple[0]
    txaddr_bits = txaddr.split('.')
    txaddr_base = int(txaddr_bits[3])
    txaddr_prefix = '%s.%s.%s.' % (txaddr_bits[0], txaddr_bits[1], txaddr_bits[2])
    print 'digitisers sending to: %s%d port %d' % (txaddr_prefix, txaddr_base + 0, dig_tx_tuple[2])
    fdig.write_int('gbe_iptx0', tengbe.str2ip('%s%d' % (txaddr_prefix, txaddr_base + 0)))
    fdig.write_int('gbe_iptx1', tengbe.str2ip('%s%d' % (txaddr_prefix, txaddr_base + 1)))
    fdig.write_int('gbe_iptx2', tengbe.str2ip('%s%d' % (txaddr_prefix, txaddr_base + 2)))
    fdig.write_int('gbe_iptx3', tengbe.str2ip('%s%d' % (txaddr_prefix, txaddr_base + 3)))
    fdig.write_int('gbe_porttx', dig_tx_tuple[2])
    fdig.registers.control.write(gbe_rst=False)
    # enable the tvg on the digitiser and set up the pol id bits
    fdig.registers.control.write(tvg_select0=True)
    fdig.registers.control.write(tvg_select1=True)
    fdig.registers.id2.write(pol1_id=1)
    # start tx
    print 'Starting dig TX...',
    sys.stdout.flush()
    fdig.registers.control.write(gbe_txen=True)
    print 'done.'
    sys.stdout.flush()
    fdig.disconnect()
Beispiel #3
0
                    default=False,
                    help='reset all counters at script startup')
args = parser.parse_args()

polltime = args.polltime

xeng_hosts = args.hosts.lstrip().rstrip().replace(' ', '').split(',')

xeng_hosts = ['roach020921', 'roach020927', 'roach020919', 'roach020925',
          'roach02091a', 'roach02091e', 'roach020923', 'roach020924']

# create the devices and connect to them
ffpgas = []
for host in xeng_hosts:
    xeng_fpga = KatcpClientFpga(host)
    xeng_fpga.get_system_information()
    if args.rstcnt:
        xeng_fpga.registers.control.write(cnt_rst='pulse')
    ffpgas.append(xeng_fpga)

def get_fpga_data(fpga):
    data = {}
    for pol in [0,1]:
        data['rx_cnt%i' % pol] = fpga.device_by_name('rx_cnt%i' % pol).read()['data']['reg']
        data['rx_err_cnt%i' % pol] = fpga.device_by_name('rx_err_cnt%i' % pol).read()['data']['reg']
    return data

data = get_fpga_data(ffpgas[0])
reg_names = data.keys()
reg_names.sort()
Beispiel #4
0
rxhosts = ['roach020826', 'roach02070f', 'roach020828', 'roach02082c',
    'roach02064f', 'roach02064a', 'roach020815', 'roach020650',
    'roach02080f', 'roach020813', 'roach020712', 'roach02082d',
    'roach02081c', 'roach020637', 'roach02081e', 'roach02064b',
    'roach02070f', 'roach02082c', 'roach020818', 'roach02070e']

fchan_per_x = 128


xengines



f = KatcpClientFpga('roach020921')
f.get_system_information()

#
#import corr, struct
#f = corr.katcp_wrapper.FpgaClient('roach020921')
#time.sleep(0.3)
#sd = f.snapshot_get('snap_reord0_ss', circular_capture=True, man_trig=True)
#up = struct.unpack('>2048Q', sd['data'])
#for ctr in range(0, 2048, 2):
#    print ctr, ':',
#    w1 = up[ctr]
#    w2 = up[ctr+1]
#    sync = (w1 >> 63) & 0x01
#    data = (w1 >> 31) & 0xffffffff
#    valid = (w1 >> 30) & 0x01
#    dtime = ((w1 & (pow(2,30)-1)) << 12) & ((w2 >> 46) & (pow(2,18)-1))
Beispiel #5
0
        fpga.deprogram()
    ftuple = [(fdig, dfpg)]
    ftuple.extend([(fpga, ffpg) for fpga in ffpgas])
    ftuple.extend([(fpga, xfpg) for fpga in xfpgas])
    stime = time.time()
    print('Programming: ',
    sys.stdout.flush()
    misc.program_fpgas(ftuple, timeout=45)
    print(time.time() - stime
    ftuple = None

for fpga in all_fpgas:
    fpga.test_connection()
    fpga.get_system_information()

if setup_gbe:
    # stop sending data
    fdig.registers.control.write(gbe_txen=False)
    for fpga in ffpgas:
        fpga.registers.control.write(gbe_txen=False)
    for fpga in xfpgas:
        fpga.registers.control.write(gbe_txen=False)

    # pulse the cores reset lines from False to True
    fdig.registers.control.write(gbe_rst = False)
    for fpga in ffpgas:
        fpga.registers.control.write(gbe_rst = False)
    for fpga in xfpgas:
        fpga.registers.control.write(gbe_rst = False)
#    fdig.registers.control.write(gbe_rst = True)
#    for fpga in ffpgas: