BER/FLR Calculation Results for Multiplexing in PMA

2014/7/9
BER/FLR Calculation Results
for Multiplexing in PMA
Tongtong Wang, Xinyuan Wang, Wenbin Yang
HUAWEI TECHNOLOGIES CO., LTD.
IEEE 802.3bs 400 GbE Task Force
Background

Based on evaluation method presented in May, (wang_t_3bs_01_0514), FEC
performance with different burst error factors are explored; BERin requirements are listed for
reference.

KR4/KP4 FEC performance with all muxing methods are explored for comparison.
MAC/RS

Have minor updates on calculation method.

Four muxing methods under investigation:
400G PCS
802.3bj
FEC
802.3bj
FEC
802.3bj
FEC
802.3bj
FEC
1st stage
PMA[16:16] in PCS
The same color
lanes from subFECs distribute to
different Mux/Demux
group.
Each bit mux block based on 4/2 electrical lanes from different sub-FEC
Bitmux
mux
Bit
Bitmux
mux
Bit
Bitmux
mux
Bit
Bitmux
mux
Bit
2nd stage PMA[16:4/8]
or PMA[8:4] in module

Orthogonal symbol mux

Orthogonal bit mux

Non-orthogonal symbol mux

Non-orthogonal bit mux
Optical Module

Analysis of reusing gearbox for 400GbE and
PMD
MDI
4x100GbE, from BER performance perspective.
Medium
HUAWEI TECHNOLOGIES CO., LTD.
Page 2
Updates in Calculation

For FEC incorporated 400GbE, FLR(frame loss rate) is more
practical in evaluating MTTFPA performance. So we also use FLR
equations from BER,

http://www.ieee802.org/3/400GSG/public/adhoc/logic/jun26_13/anslow_01_0613_logic.pdf
Or approximately

Update calculation programs

n
i
Use SERin instead of BERin as Cn   i  function is based on symbols as well
 
n
n
 n t
 n  t t i
 n
BERpost    * M (t  1)*W ( E )   *  G(i)* M (t  i)*W ( E )    *  G(i)* G( j )* M (t  i)*W ( E )  ...     * G(i)*W ( E )
i t 1  i 
1
 2  i 1
 3  i 1 j 1
Probability of having more than
t+1 separate burst errors
Probability of having three burst error whose total length is longer than t+1 symbols
Probability of having two burst error whose total length is longer than t+1 symbols
Probability of having a single burst error longer than t+1 symbols
HUAWEI TECHNOLOGIES CO., LTD.
Page 3
BER Evaluation (1)

BERin requirements for 2:1 mux are listed, assuming rllmax = 4bits
RS FEC
RS(528,514)
RS(544,514)
b
mux 2:1
FOM symbol mux
FOM bit mux
Non-FOM symbol mux
Non-FOM bit mux
b=0.1
3.75E-05
3.75E-05
3.56E-05
1.42E-05
b=0.5
3.75E-05
2.19E-05
2.07E-05
2.38E-06
b=0.1
3.09E-04
3.09E-04
3.09E-04
2.23E-04
b=0.5
3.09E-04
2.93E-04
2.63E-04
8.45E-05
HUAWEI TECHNOLOGIES CO., LTD.
Page 4
BER Evaluation (2)

BERin requirements for 2:1 mux are listed, assuming rllmax = 17bits
RS FEC
RS(528,514)
RS(544,514)
b
mux 2:1
FOM symbol mux
FOM bit mux
Non-FOM symbol mux
Non-FOM bit mux
b=0.1
3.75E-05
3.75E-05
3.56E-05
1.42E-05
b=0.5
b=0.1
b=0.5
3.75E-05
3.09E-04
3.09E-04
1.86E-05
3.09E-04
2.77E-04
1.58E-05
3.09E-04
2.23E-04
1.25E-06
2.23E-04
6.44E-05
HUAWEI TECHNOLOGIES CO., LTD.
Page 5
BER Evaluation (3)

BERin requirements for 4:1 mux are listed, assuming rllmax = 17bits
RS FEC
RS(528,514)
RS(544,514)
b
b=0.1
b=0.5
b=0.1
b=0.5
FOM Symbol mux
3.75E-05
3.75E-05
3.09E-04
3.09E-04
HUAWEI TECHNOLOGIES CO., LTD.
FOM bit mux
3.75E-05
3.56E-05
3.09E-04
3.09E-04
mux 4:1
Non-FOM symbol mux
3.56E-05
1.58E-05
2.93E-04
2.23E-04
Page 6
Non-FOM bit mux
4.10E-06
2.42E-08
1.70E-04
1.14E-05
Effect of Parameters

b: “Prob of continuous error after a initial error bit”


Rllmax : “maximum burst error length”


Smaller value of b, less probability for burst errors
Larger rllmax increases probability for burst errors
Example with FOM bit mux 2:1 With different value of b and rllmax
FOM bitmux with b=0.5/0.1, rll=17/4
For RSFEC(528,514)
HUAWEI TECHNOLOGIES CO., LTD.
FOM bitmux with b=0.5/0.1, rll=17/4
For RSFEC(544,514)
Page 7
Compatible Gearbox - 1x400GbE vs. 4x100GbE
MAC/RS
4X25Gbps FEC
symbolFEC
lanes
4X25Gbps
from 4FEC
Sub-FECs
symbol
lanes
4X25Gbps
from 4FEC
Sub-FECs
symbol
lanes
4X25Gbps
from 4 Sub-FECs
symbol
lanes
from 4 Sub-FECs
400G PCS
802.3bj
FEC
802.3bj
FEC
802.3bj
FEC
802.3bj
FEC
1X400GbE :
16X25G CDAUI
with 8X50G PMD
Each bit mux block based on 4/2 electrical lanes from different sub-FEC
Bitmux
mux
Bit
Bitmux
mux
Bit
Bitmux
mux
Bit
Bitmux
mux
Bit
PMD
MDI
Medium
4X25Gbps FEC symbol
4X25Gbps
lanes toFEC
4 Sub-FECs
symbol
lanes to
4 Sub-FECs
4X25Gbps
FEC
symbol
lanes toFEC
4 Sub-FECs
4X25Gbps
symbol
Ingress
PCS/PMA
lanesFEC0
toIngress
4 Sub-FECs
PCS/PMA
FEC1 FEC2 FEC3
80.0 FEC3
40.0 FEC2
120.0
00.0 FEC1
Ingress
PCS/PMA
FEC0
Egress PCS/PMA
120.1
40.040.1 80.080.1 120.0
00.000.1 PCS/PMA
Ingress
120.2
FEC0
FEC2
FEC1
FEC3
Egress PCS/PMA
40.140.2
80.180.2
120.1
00.100.2
FEC0
FEC1 FEC2 FEC3
40.3
80.3
120.3
00.3
80.080.2
40.040.2
120.0
00.000.2
120.2
FEC2
FEC1
FEC3
80.5 FEC3
40.5 FEC2
120.5 FEC0
00.5 FEC1
Egress
PCS/PMA
40.4
80.4
00.4
120.4
40.1
80.1
120.1
00.1
FEC0
40.3
80.3
120.3
80.0
40.0
120.0
00.0 00.3
120.4
00.5
40.5
80.5
120.5
40.240.4
120.2
00.200.4
80.280.4
40.540.4 80.580.4 120.5
00.500.4 PCS/PMA
Egress
120.4
40.1
80.1
120.1
00.1
120.3
FEC280.480.3
FEC0
FEC1
FEC3
40.340.5 80.380.5 120.3
40.440.3
120.4
00.400.3
120.5
40.240.4
00.200.300.5
80.280.4and120.2
40.2
80.2
Alignment
Reorder
120.2
00.2
80.5
40.5
120.5
00.5
00.4
120.4
40.3
120.3
00.3
80.3
FEC2
FEC0
FEC1
FEC3
120.3
00.300.5 40.340.5 80.3
40.4 40.1
80.4 80.1
120.4 120.1
00.4 00.1
40.2
80.2
120.2
80.5
40.5
120.5
00.5 00.2
00.0
40.0
80.0
120.0
120.3
120.1
40.440.340.1
80.480.380.1
120.4
00.400.300.1
40.2
80.280.0 120.2
40.3 40.0
120.3 120.0
00.300.200.0
00.1 40.240.1 80.3
120.1
80.280.1 120.2
00.2
120.0
00.100.0 40.140.0 80.180.0 120.1
TX:CDAUI-16
00.0
40.0
80.0
120.0
TX:CDAUI-16
TX:CDAUI-16
TX:CDAUI-16
00.5
00.500.4
40.5
120.5
00.400.3
80.5
120.4
00.500.300.2 40.540.4
80.4 120.5
00.1
40.3
120.3
00.500.400.200.0 40.440.2 80.580.3 120.4
40.540.3
120.2
00.3
80.4 120.5
120.3
00.4 00.1
40.1
80.580.380.2
120.1
120.4
40.540.440.240.0
120.2
00.300.200.0
120.5
00.1
120.0
40.3 80.580.480.280.1
120.3
120.1
00.200.0 40.440.240.1
120.4
80.0
80.3
120.2
80.4 80.1
00.1
120.0
40.340.140.0
120.3
80.280.0
120.1
80.380.1 120.2
40.2
00.0
120.0
40.140.0 80.280.0 120.1
40.0 40.780.1
120.0120.5
00.580.0
80.6
120.5
40.7
120.4
00.540.6
80.6
80.5
120.5
40.740.600.4
120.4
120.3
00.5 40.5
80.680.5
Bit Mux
120.5
40.7 00.400.3
80.4
120.4
120.3
00.540.640.540.4 Bit Mux
80.6
2:1
120.2
80.580.4
40.600.400.300.2
120.4
120.3 80.3
2:1
00.440.540.440.3
80.5 120.2
Bit Mux
120.1
80.480.3
40.500.300.200.1
2:1 120.3
80.2
Bit Mux
120.2
120.1
00.340.440.3
80.4
40.2
120.0
80.380.2
2:1
40.400.200.1
120.2
00.0
120.1 80.1
00.240.340.2
80.3 120.0
00.1
80.2
40.3 00.0
120.1 80.1
120.0
00.140.2
80.2
80.1
40.200.0
120.0
00.0
80.1
120.5
Alignment
and
AM Reorder
lock
40.4
80.480.5
120.4
40.5
80.5
AM
lock 120.5
120.0
Alignment and
Reorder
40.0
120.1
40.1 120.0
00.0 and
80.0
Alignment
Reorder
AM
lock
40.0
120.2
40.2 120.1
80.1
40.1
00.000.1
120.3 80.080.2
AM
120.0
40.3
40.0lock
120.2
40.240.4
00.100.2
120.4 80.180.3
120.1
00.3
40.140.3
00.000.2
120.3
80.0
120.0
40.0
120.5 80.280.4
120.2
40.5
00.4
40.2
00.1
120.4
80.1
120.1
40.4 120.3 80.0 80.3
40.1
00.0 00.3
00.5
40.3 120.2
120.5 80.280.480.5
40.240.440.5
00.100.200.4
80.1
120.4
80.3
120.3
40.3
00.200.300.5
120.5 80.280.480.5
00.4 40.440.5 120.4
00.3
80.3
120.5
00.400.5 40.5
RX:CDAUI-16
80.480.5
00.5
80.5
00.4
00.5
802.3ba
MAC/RS
802.3ba
MAC/RS
802.3ba
MAC/RS
802.3ba
PCS
802.3ba
PCS
802.3ba
PCS
802.3ba
PCS
802.3bj
FEC
802.3bj
FEC
802.3bj
FEC
802.3bj
FEC
4X25Gbps FEC
4X25Gbps
FECfrom
symbol lanes
4X25Gbps
FECfrom
symbol
lanes
ONE
Sub-FEC
symbol
lanes
from
ONE
Sub-FEC
4X25Gbps
FEC
ONE
Sub-FEC
symbol
lanes
from
ONE Sub-FEC
4X100GbE :
4X(4X25G) CDAUI
with 2X50G PMD
Each bit mux block based on 4/2 electrical lanes from one sub-FEC
Bitmux
mux
Bit
Bitmux
mux
Bit
Bitmux
mux
Bit
Bitmux
mux
Bit
100GbE
PMD
100GbE
PMD
100GbE
PMD
100GbE
PMD
MDI
4X25Gbps FEC symbol
4X25Gbps
lanes to FEC
ONEsymbol
Sub-FEC
4X25Gbps
lanes toFEC
ONEsymbol
Sub-FEC
lanes to FEC
ONEsymbol
Sub-FEC
4X25Gbps
Ingress
PCS/PMA
lanes to ONE
Sub-FEC
Ingress
PCS/PMA
FEC0
FEC2 FEC3
FEC1
Ingress
PCS/PMA
02.0 FEC3
01.0 FEC2
03.0
00.0 FEC1
FEC0
Egress PCS/PMA
02.002.1
01.001.1
03.003.1
00.000.1
Ingress
PCS/PMA
FEC0
FEC2
FEC1
FEC3
01.2
03.2
00.2
02.2
Egress PCS/PMA
02.002.102.303.003.103.3
01.001.101.3
00.000.100.3
FEC0 FEC1 FEC2 FEC3 FEC0
FEC2
FEC1
FEC3
03.2
Egress
PCS/PMA
01.101.201.4
02.102.2
00.100.2
02.5 FEC3
01.5 FEC2
03.5
00.5 FEC1
02.403.103.303.4
00.4
FEC0
02.0 02.3
01.0
03.0
00.000.200.3
01.201.3
03.2 03.5
02.2
01.4
02.4
03.4
00.4
00.5
01.5
02.5
Egress
PCS/PMA
02.5 FEC3
01.5FEC2
03.5
00.5 FEC1
01.101.301.4
02.102.302.4
03.103.303.4
00.100.300.4
FEC0
00.3 01.401.3
02.3 03.403.3
02.4
00.4
01.2
03.2
00.2
00.5
02.2
01.5
02.5
03.5
02.5 02.2
01.5 01.2
03.5 03.2
00.5 00.2
01.4
02.4
00.4
03.4
Alignment
and03.3
Reorder
FEC2
FEC0
FEC1
FEC3
02.302.5
00.300.5 01.301.5
01.401.3 02.402.3
03.403.3
00.400.3
03.5
01.1 02.2
02.1 03.203.1
00.1 01.2
01.5
03.5
00.500.300.2
01.3 02.5
03.3
02.3 02.0
00.0
01.0
01.4
02.4
03.403.203.103.0
00.400.200.1
01.201.1
02.202.1
01.301.101.0
03.303.103.0
00.300.100.0
02.302.102.0
00.200.0 01.201.0 02.202.0 03.203.0
01.1
02.1
00.1
03.1
00.0
01.0 TX:CDAUI-16
02.0
03.0
TX:CDAUI-16
TX:CDAUI-16
TX:CDAUI-16
00.5
00.500.4
01.5
00.3
03.5
00.500.400.2
02.5
01.501.4
03.503.4
00.400.3
01.3 02.502.4 03.403.3
00.500.300.200.1
01.501.401.2
03.5 03.2
02.402.3
00.400.200.100.0
01.401.3 02.5 02.2
03.403.303.1
01.501.301.201.1
00.300.100.0
03.5
02.402.3
02.1
03.303.203.0
01.0
02.5
02.2
00.200.0 01.401.201.1
03.4
02.3 02.0
03.203.1
02.402.202.1
00.1
01.301.101.0
03.303.103.0
01.201.0 02.302.102.0
00.0
03.2
02.202.0 03.103.0
01.1
01.0 01.7 02.1
03.0 03.5
02.0
03.502.6
01.700.5
01.6
03.4
03.502.602.5
01.700.500.4
00.501.6
02.603.403.3
03.5
01.701.600.401.5
Bit
Mux
03.402.502.4
00.500.401.500.3
02.6
2:1
02.503.3
01.601.500.301.4 Bit Mux
03.403.302.403.2
2:1
00.400.301.400.2
Bit Mux
02.502.403.202.3
01.501.400.201.32:1 03.3 02.303.1
03.2
Bit00.1
Mux
00.300.201.3
02.402.303.102.2
2:1
01.401.300.101.2
03.203.102.203.0
00.200.101.200.0
02.302.203.002.1
01.301.200.0
03.103.002.1
00.100.0
02.202.1
01.2
03.0
00.0
02.1
Reuse compatible gearbox for
400GbE and 4x100GbE

Four groups of FOM mux
in 400GbE.

Every 100GbE has mux
within itself.
RX:CDAUI-16
40.0
RX:CDAUI-16
80.0
40.1
120.0 80.080.1
RX:CDAUI-16
00.0 40.040.2
40.1
120.1 80.180.2
40.040.240.3 120.0
00.000.1
120.2
80.080.280.3
00.2
120.1
40.1
40.340.4
00.1
40.0
120.3
120.0
80.180.380.4
00.3
00.000.2
120.2
40.240.440.5
80.0
80.5
40.1
120.4
120.1
80.280.4
00.4
40.3 120.0
120.3
80.1
00.000.100.3
40.2
120.5
80.3
00.5 40.5 120.2
120.4
80.2 80.5
40.340.4 120.1
00.100.200.4
120.3
120.5
80.380.4
00.200.300.5
40.440.5 120.2
120.4 80.480.5
00.4
120.3
00.300.5 40.5
120.5 80.5
120.4
40.1
80.1
00.4
120.5
120.0
00.5
40.100.0
80.1
80.2
00.040.2
120.0
120.1
40.140.200.1
80.180.2
40.3
80.3
120.0
120.1
40.100.000.100.2 Bit80.1
120.2
Demux
80.2
00.040.240.340.4
120.0 80.380.4
00.1
1:2
120.1
120.2
00.2
Bit
Demux
80.2
40.240.3 00.3
120.3
80.380.4
00.100.240.4
1:2
120.1
40.5
80.5
120.2
Bit
Demux
120.3
40.340.400.3
80.380.4
00.4
120.4
40.5
1:2
80.580.6
120.2
00.200.3
Bit Demux
40.6
120.3
120.4
40.440.500.4
80.480.5
1:2
00.5
120.5
80.6
00.3 40.6
120.3
120.4
00.5
40.500.4
120.5
80.5
40.6
80.6
00.4
120.4
120.5
40.600.5
80.6
00.5
120.5
Two 50Gbps Optical Link
Two 50Gbps Optical Link
Two 50Gbps Optical Link
Two 50Gbps Optical Link
802.3ba
MAC/RS

01.4
02.4
Alignment
and
Reorder
03.4
AM lock
01.5
02.5Reorder
03.5
Alignment
and
AM
01.0lock 03.0
01.1 03.003.1
00.0 and
Alignment
AM
lock
Reorder
02.0
01.0
03.2
01.101.2
00.000.1
03.003.103.3 02.002.1
AM
01.0lock
01.3
00.2
03.2
02.2
01.2
03.1 03.4
01.1 03.0
00.000.100.3
02.002.102.3
01.4
01.001.201.3
03.203.303.5
00.100.200.4
02.102.2
01.5
03.1
01.101.301.4
00.000.200.3
02.0 02.302.4
03.303.4
02.2
00.5
03.2
03.5
02.5
01.201.401.5 03.4 02.1 02.4
00.100.300.4
01.301.5 03.303.5 02.202.302.5
00.200.400.5
02.4
03.4
00.300.5 01.4
02.302.5
03.5
01.5
00.4
02.4
RX:CDAUI-16
00.5
02.5
00.4
00.5
RX:CDAUI-16
01.0
RX:CDAUI-16
02.0
01.001.1
03.0 02.002.1
RX:CDAUI-16
00.0 01.101.2
01.0 01.3 03.003.1 02.102.2
00.000.1
02.0 02.3
01.101.201.4 03.103.2
00.2
01.0
03.0 03.3
02.102.202.4
00.000.1
01.201.301.5
02.0
02.3
03.2
00.3
01.101.301.4 03.1 03.4
02.2
00.100.2
03.0 03.3
02.102.302.402.5
00.4 01.5
00.000.200.3
01.2
03.5 02.5
01.4 03.103.203.4
00.5
02.2
01.3
00.100.300.4
02.4
01.5 03.203.303.5
02.302.5
00.200.400.5
01.4
03.4
03.303.5 02.4
00.300.5 01.5
02.5
03.4
00.4
01.1
02.1
03.5
00.5
01.100.0
02.103.0
02.2
01.2
01.100.000.1
02.103.003.1
00.001.2
03.002.2
01.101.200.101.3
02.102.203.102.3
03.2
Demux
00.000.101.300.2 Bit03.0
03.102.302.4
1:2
02.2
01.201.300.201.4
Bit Demux
02.303.203.3
00.3
01.4
00.100.2 Bit
03.103.202.4
1:2
Demux
01.5
02.5
01.301.400.3
00.41:2 02.302.403.303.4
01.5
03.203.302.5
00.200.3
Bit
Demux
01.6
01.401.500.4
02.402.503.402.6
1:2
00.300.401.600.5
03.303.402.603.5
01.501.600.5
02.502.603.5
00.400.5
03.403.5
01.6
02.6
00.5
03.5

MTTFPA Performance may be
different for 400GbE and
100GbE, by using compatible
gearbox.

How much difference?

Whether it is acceptable
for MTTFPA requirement
for both 400GbE/100GbE?
Two 50Gbps Optical Link
Two 50Gbps Optical Link
Two 50Gbps Optical Link
Two 50Gbps Optical Link
HUAWEI TECHNOLOGIES CO., LTD.
Page 8
Performance Difference - 1x400GbE vs. 4x100GbE

While 400GbE has four parallel 100GBase-KR4/KP4 RSFEC and FOM mux
options, if every individual 100GbE reuse one RSFEC encoder/decoder with
only non-FOM mux options, what is the performance for 100GbE?

Mux options:

Bit mux

To reach BERpost = 1e-13 in 400GbE, SNR = 12.2dB,
On each 100GbE,
BERpost = 1e-10 (b=0.5, rll=4);
= 5e-11 (b=0.1, rll=4)
*MTTFPA = 108 ~ 1010 years.

Symbol mux

To reach BERpost = 1e-13 in 400GbE, SNR=11.8dB,
On each 100GbE,
BERpost = 1e-12 (b=0.5, rll=4);
= 1e-13 (b=0.1, rll=4)
*MTTFPA = 1011 ~ 1013 years.
HUAWEI TECHNOLOGIES CO., LTD.
*refer to http://www.ieee802.org/3/bj/public/jan12/cideciyan_01_0112.pdf
Page 9
Conclusions

By using 100GBASE-KR4 RS(528,514) and FOM bit mux 2:1, BERin should be
1.9e-5 to satisfy BERpost = 1e-13 objective in 400GbE, with coding gain of
5dB;

By using 100GBASE-KP4 RS(544,514) and FOM bit mux 2:1, It requires 2.8e-4
to meet BERpost = 1e-13 objective in 400GbE, with coding gain of 6.5dB;

Supporting 400GbE and 4x100GbE compatible gearbox is possible with
bitmux option, either accepting a certain degradation of performance
according to the PMD features or we can put constraints on error
propagation factors to keep MTTFPA.
HUAWEI TECHNOLOGIES CO., LTD.
Page 10
Thank you
BER Evaluation (2:1 mux ,rllmax=2 bits)
RS528,514
b=0.1
BERpost
FLR
RS528,514
BERpost
b=0.5
FLR
RS544,514
BERpost
b=0.1
FLR
RS544,514
BERpost
b=0.5
FLR
mux 2:1
FOM
FOM
Non-FOM Non-FOM
Symmux bitmux sym
bit
1.00E-12 6.20E-10 5.19E-05 5.19E-05 4.92E-05 2.71E-05
1.00E-13 6.20E-11 3.75E-05 3.75E-05 3.56E-05 1.67E-05
1.00E-15 6.20E-13 2.07E-05 2.07E-05 1.86E-05 6.31E-06
mux 2:1
FOM
FOM
Non-FOM Non-FOM
Symmux bitmux sym
bit
1.00E-12 6.20E-10 5.19E-05 5.19E-05 4.92E-05 1.34E-05
1.00E-13 6.20E-11 3.75E-05 3.75E-05 3.37E-05 7.84E-06
1.00E-15 6.20E-13 2.07E-05 2.07E-05 1.58E-05 2.52E-06
mux 2:1
FOM
FOM
Non-FOM Non-FOM
Symmux bitmux sym
bit
1.00E-12 6.20E-10 3.63E-04 3.63E-04 3.63E-04 2.93E-04
1.00E-13 6.20E-11 3.09E-04 3.09E-04 3.09E-04 2.36E-04
1.00E-15 6.20E-13 2.23E-04 2.23E-04 2.23E-04 1.53E-04
mux 2:1
FOM
FOM
Non-FOM Non-FOM
Symmux bitmux sym
bit
1.00E-12 6.20E-10 3.63E-04 3.63E-04 3.63E-04 2.23E-04
1.00E-13 6.20E-11 3.09E-04 3.09E-04 3.09E-04 1.61E-04
1.00E-15 6.20E-13 2.23E-04 2.23E-04 2.23E-04 9.41E-05
HUAWEI TECHNOLOGIES CO., LTD.
Page 12
BER Evaluation (2:1 mux ,rllmax=8 bits)
RS528,514 b=0.1
BERpost FLR
1E-12
1E-13
1E-15
No mux
mux 2:1
Random
FOM
FOM
Non-FOM Non-FOM
Burst Err
Err
Symmux bitmux
sym
bit
6.2E-10 5.19E-05 4.92E-05 5.19E-05 5.19E-05 4.92E-05 2.31E-05
6.2E-11 3.75E-05 3.56E-05 3.75E-05 3.75E-05 3.56E-05 1.42E-05
6.2E-13 2.07E-05 1.76E-05 2.07E-05 2.07E-05 1.76E-05 4.33E-06
RS528,514 b=0.5
BERpost FLR
1.00E-12
1.00E-13
1.00E-15
No mux
mux 2:1
Random
FOM
FOM
Non-FOM Non-FOM
Burst Err
Err
Symmux bitmux
sym
bit
6.20E-10 5.19E-05 2.57E-05 5.19E-05 3.19E-05 2.57E-05 3.13E-06
6.20E-11 3.75E-05 1.58E-05 3.75E-05 1.96E-05 1.58E-05 1.39E-06
6.20E-13 2.07E-05 5.98E-06 2.07E-05 6.67E-06 5.98E-06 1.99E-07
RS544,514 b=0.1
BERpost FLR
1.00E-12
1.00E-13
1.00E-15
No mux
mux 2:1
Random
FOM
FOM
Non-FOM Non-FOM
Burst Err
Err
Symmux bitmux
sym
bit
6.20E-10 3.63E-04 3.44E-04 3.63E-04 3.63E-04 3.44E-04 2.77E-04
6.20E-11 3.09E-04 3.08E-04 3.09E-04 3.09E-04 3.08E-04 2.23E-04
6.20E-13 2.23E-04 2.23E-04 2.23E-04 2.23E-04 2.23E-04 1.37E-04
RS544,514 b=0.5
BERpost FLR
1.00E-12
1.00E-13
1.00E-15
HUAWEI TECHNOLOGIES CO., LTD.
No mux
mux 2:1
Random
FOM
FOM
Non-FOM Non-FOM
Burst Err
Err
Symmux bitmux
sym
bit
6.20E-10 3.63E-04 2.77E-04 3.63E-04 3.44E-04 2.77E-04 9.41E-05
6.20E-11 3.09E-04 2.23E-04 3.09E-04 2.77E-04 2.23E-04 6.45E-05
6.20E-13 2.23E-04 1.50E-04 2.23E-04 1.80E-04 1.45E-04 3.19E-05
Page 13

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