Dynamic prediction of moving trajectory in pipe jacking: GRU-based deep learning framework
Yi-Feng YANG1, Shao-Ming LIAO1, Meng-Bo LIU2()
1. Department of Geotechnical Engineering, College of Civil Engineering, Tongji University, Shanghai 200092, China 2. Key Laboratory of Road and Traffic Engineering of Ministry of Education, Tongji University, Shanghai 201804, China
The moving trajectory of the pipe-jacking machine (PJM), which primarily determines the end quality of jacked tunnels, must be controlled strictly during the entire jacking process. Developing prediction models to support drivers in performing rectifications in advance can effectively avoid considerable trajectory deviations from the designed jacking axis. Hence, a gated recurrent unit (GRU)-based deep learning framework is proposed herein to dynamically predict the moving trajectory of the PJM. In this framework, operational data are first extracted from a data acquisition system; subsequently, they are preprocessed and used to establish GRU-based multivariate multistep-ahead direct prediction models. To verify the performance of the proposed framework, a case study of a large pipe-jacking project in Shanghai and comparisons with other conventional models (i.e., long short-term memory (LSTM) network and recurrent neural network (RNN)) are conducted. In addition, the effects of the activation function and input time-step length on the prediction performance of the proposed framework are investigated and discussed. The results show that the proposed framework can dynamically and precisely predict the PJM moving trajectory during the pipe-jacking process, with a minimum mean absolute error and root mean squared error (RMSE) of 0.1904 and 0.5011 mm, respectively. The RMSE of the GRU-based models is lower than those of the LSTM- and RNN-based models by 21.46% and 46.40% at the maximum, respectively. The proposed framework is expected to provide an effective decision support for moving trajectory control and serve as a foundation for the application of deep learning in the automatic control of pipe jacking.
large cutter: 4675 mm (× 2), medium cutter: 2300 mm, 2100 mm, small cutter: 1700 mm (× 2)
motor power
large cutter: 37 kW × 8 = 296 kW (× 2), medium cutter: 45 kW (× 2), small cutter: 37 kW (× 2)
maximum torque of cutter
large cutter: 1700 kN·m (× 2), medium cutter: 140 kN·m (× 2), small cutter: 110 kN·m (× 2)
rotation speed of cutter
large cutter: 0−1.2 r/min, medium cutter: 0−2.5 r/min, small cutter: 0−2.5 r/min
stroke of rectifying oil cylinder
200 mm
maximum rectifying oil cylinder thrust
3000 kN × 12 = 36000 kN
maximum rectifying angle
up and down: 1.2°; left and right: 1.1°
screw conveyor power
90 kW (× 2)
screw conveyor rotating speed
1–14.5 r/min
screw conveyor dumping quantity
116 m3/h (× 2)
maximum jacking speed
40 mm/min
maximum thrust
2500 kN × 16 = 40000 kN
Tab.1
Fig.7
Fig.8
parameter
abbreviation
parameter type
mean
std
min
max
unit
total thrust
input
11321.25
1047.68
9142.1
14641.66
kN
advance rate of large cutter 1
input
29.97
5.03
17.92
41.5
mm/min
advance rate of large cutter 2
input
29.75
4.92
17.75
41.16
mm/min
rotation angle of large cutter 1
input
178.72
101.32
0
359
°
rotation angle of large cutter 2
input
179.06
103.68
0
359
°
jacking stroke of large cutter 1
input
1657.1
435.83
449.75
2408.88
mm
jacking stroke of large cutter 2
input
1641.46
435.55
870.63
2382.63
mm
torque of large cutter 1
input
321.70
19.51
258.28
408.99
kN·m
torque of large cutter 2
input
330.51
35.42
247.91
445.34
kN·m
torque of small cutter 1
input
19.09
2.12
10.79
25.51
kN·m
torque of small cutter 2
input
26.95
2.52
19.44
41.61
kN·m
torque of small cutter 3
input
12.63
0.76
10.01
15.42
kN·m
torque of small cutter 4
input
14.34
1.2
9.88
17.48
kN·m
rotation speed of large cutter 1
input
0.85
0.003
0.84
0.86
min−1
rotation speed of large cutter 2
input
0.85
0.004
0.84
0.86
min−1
rotation speed of small cutter 1
input
2.56
0.003
2.55
2.57
min−1
rotation speed of small cutter 2
input
2.56
0.005
2.52
2.6
min−1
rotation speed of small cutter 3
input
2.56
0
2.56
2.56
min−1
rotation speed of small cutter 4
input
2.56
0.0001
2.55
2.57
min−1
horizontal deviation of jacking machine head
JMH-HD
input and output
1.51
14.71
−34
38
mm
vertical deviation of jacking machine head
JMH-VD
input and output
–9.73
7.06
–27
16
mm
horizontal deviation of jacking machine tail
JMT-HD
input and output
–13.7
20.88
–52
32
mm
vertical deviation of jacking machine tail
JMT-VD
input and output
5.37
12.6
–17
37
mm
Tab.2
Fig.9
Fig.10
Fig.11
Fig.12
Fig.13
hyperparameter
tuning range
GRU layer units
16, 32, 64, 128, 256
learning rate
0.01, 0.001, 0.0001
Tab.3
model for prediction
GRU layer units
learning rate
batch size
optimizer
epochs
JMH-HD
32
0.001
32
Adam
300
JMH-VD
256
0.001
32
Adam
300
JMT-HD
64
0.001
32
Adam
300
JMT-VD
128
0.001
32
Adam
300
Tab.4
metrics
JMH-HD
JMH-VD
JMT-HD
JMT-VD
training
test
training
test
training
test
training
test
MAE
0.3442
0.6459
0.1302
0.1904
0.4151
0.3561
0.1609
0.5873
RMSE
1.5777
1.4748
0.4079
0.5011
1.5127
1.2468
0.4207
0.7476
Tab.5
Fig.14
Fig.15
model for predicting
LSTM
RNN
number of units
learning rate
number of units
learning rate
JMH-HD
256
0.001
32
0.001
JMH-VD
32
0.001
16
0.001
JMT-HD
32
0.001
16
0.001
JMT-VD
32
0.001
64
0.001
Tab.6
model
metrics
JMH-HD
JMH-VD
JMT-HD
JMT-VD
GRU
MAE
0.6459*
0.1904
0.3561
0.5873
RMSE
1.4748
0.5011
1.2468
0.7476
LSTM
MAE
0.8598
0.4614
0.4191
0.8015
RMSE
1.7740
0.6380
1.2603
0.9262
RNN
MAE
1.0636
0.6966
0.4833
1.1049
RMSE
2.2781
0.9349
1.3105
1.2556
Tab.7
Fig.16
Fig.17
length of input time steps
training
test
MAE
RMSE
MAE
RMSE
10
0.3568
1.5795
0.9814
1.7140
20
0.4002
1.5738
0.8795
1.6909
30
0.3785
1.5810
0.7787
1.5687
40
0.3586
1.5846
0.8432
1.6190
50
0.3491
1.5816
0.8216
1.5851
60
0.3442
1.5777
0.6459
1.4748
70
0.3371*
1.5725
0.7586
1.5174
80
0.3557
1.5799
0.8349
1.5333
90
0.3662
1.5811
0.6721
1.5073
Tab.8
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