Bi-level GQPSO-based traffic flow prediction and planning for urban passenger transportation
L.X. Wu, Q.Q. Xu, H.M. Zheng
Pages: 175-190
Abstract:
To solve the issues regarding large
fluctuations in passenger flows and capacity scheduling difficulties in urban
passenger transportation systems, the researchers have designed and
implemented an integrated business system that can accurately predict passenger
flows and intelligently schedule capacity. This study first constructs a
short-term passenger flow prediction engine based on an information
entropy-improved Gaussian Quantum-behaved Particle Swarm Optimization
algorithm. The algorithm conducts deep optimization for the Long Short-Term
Memory network and connects with real-time data streams from urban
transportation smart cards and satellite positioning systems to achieve
online extraction and dynamic prediction of passenger flow features. On this
basis, this study develops a collaborative capacity scheduling module and
constructs a bi-level planning decision model with the minimization of actual
operating costs of bus enterprises in the upper level and the minimization of
actual passenger waiting time in the lower level as the core objectives. As
indicated by the findings, the Mean Absolute Percentage Error of the
prediction engine can be as small as 4.12±0.52% when dealing with
high-concurrency requests within a practical transport network, while the
response time delay of the system maintains at the millisecond order of
magnitude. Within the practical application in major bus lines in a specific
city, the smart scheduling scheme, which was automatically formed by the
system, has successfully cut down the monthly overall operating expense of
the company by 12.3%, with an average passenger waiting time reduction of 2.4
min during the peak period. This study transforms the Gaussian
Quantum-behaved Particle Swarm Optimization algorithm from theoretical
derivation into practical productivity and verifies the high accuracy and
robustness of the core algorithm in complex engineering environments. This
study offers support for the digitalization, cost saving, and efficiency
enhancement of urban public transport companies.
Keywords: GQPSO; passenger flow prediction;
intelligent scheduling; bi-level planning; LSTM
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