TECHNICAL FIELD
[0001] The present invention pertains to the field of rail traffic control, and in particular,
relates to a shunting operation management and control method and system.
BACKGROUND
[0002] CTC (Centralized Traffic Control System) has been widely used in railways and has
greatly promoted the modernization of railway transportation management, enabling
the informationization of dispatching command, the automation of train operation and
the centralization of signal equipment management. Especially after the promulgation
of the CTC3.0 technical conditions of China State Railway Group Co., Ltd. in 2016,
the functions of error prevention and plan management of train routes at large stations
with multi-lane, multi-direction, passenger and freight mixing, and high-speed and
general-speed mixing has been strengthened. However, for shunting operation, CTC has
not done enough. The degree of informationization and automation is low, and the planning
end and execution end are separated, which can no longer meet the transportation needs
of shunting operation.
[0003] At present, the shunting operation process of CTC is as follows. The station dispatcher
prepares the shunting operation order according to the daily operation plan, and the
operators in relevant positions print out the paper shunting operation order. The
outdoor dispatching driver contacts the station signalman by telephone and requests
to handle the designated shunting route. The signalman determines the route according
to the requirements of outdoor shunting route and handles the shunting route by manually
pressing the signal button at the end. This process is highly dependent on people,
and the accuracy and safety cannot be guaranteed. In this working mode, the shunting
operation order is not related to the route, and the outdoor driver's route shunting
request is not related to the route handling. These two disjoints are made up by manpower,
and manual participation increases the risk of error.
[0004] Also, there are the following shortcomings in shunting operation using existing equipment
at present. The outdoor dispatching driver contacts the station signalman (or attendant)
by telephone to handle the shunting route (commonly known as arteries), and the station
signalman handles the shunting route by manually pressing the signal button at the
end, which is highly dependent on people and has potential safety hazards. The conflict
between train planning and shunting operation cannot be predicted in advance. For
stations with one station and multiple fields, the shunting operation coordination
between stations is through manual contact, and there is no systematic process control.
The shunting plan is not related to the actual operation progress, and the shunting
operation progress depends on non-real-time manual records, which leads to the untimely
update of the plan, low compilation accuracy and untimely update of existing vehicles.
Some marshalling stations or section stations will have jurisdiction over multiple
stations, so a solution to meet the control of shunting operations at one station
and multiple fields is needed.
SUMMARY
[0005] In view of the above problems, the present invention provides a shunting operation
management and control method, the method comprises:
[0006] A station management information system acquiring a shunting operation order and
sending the shunting operation order to a centralized traffic control system;
[0007] The centralized traffic control system receiving the shunting operation order, determining
a turnaround point according to the shunting operation order, generating a route sequence,
and distributing same to each branch terminal;
[0008] A wireless shunting locomotive signal and monitoring system acquiring a route shunting
handling request and sending the route shunting handling request to the centralized
traffic control system;
[0009] The centralized traffic control system handling a route according to the route shunting
handling request and the route sequence and sending a route shunting handling result
to the wireless shunting locomotive signal and monitoring system to start an operation;
[0010] The centralized traffic control system sending to the station management information
system a reporting point after each operation is completed so as to implement management
and control of a shunting operation.
[0011] The present invention also provides a method of managing and controlling a shunting
operation according to a route shunting request, the method comprises:
[0012] A wireless shunting locomotive signal and monitoring system acquiring a route shunting
handling request and sending the route shunting handling request to a centralized
traffic control system;
[0013] The centralized traffic control system handling a route according to the route shunting
handling request and the route sequence and sending a route shunting handling result
to the wireless shunting locomotive signal and monitoring system to start an operation;
[0014] The centralized traffic control system sending to the station management information
system a reporting point after each operation is completed so as to implement management
and control of the shunting operation.
[0015] Further, the centralized traffic control system handling the route according to the
route shunting handling request and the route sequence comprises automatically triggering
route and manually triggering route.
[0016] Further, when the route is manually triggered, comprising the steps of previewing
the designated hook for the route:
wherein, previewing the designated hook for the route comprises a handled route path,
and the conflict situation between the handled route path and a train plan.
[0017] Further, after the centralized traffic control system determining a turnaround point
and generating the route sequence further comprises a step of automatically route
preview, wherein, the centralized traffic control system previews that the whole route
is correct and then distributes same to each branch terminal.
[0018] Further, the centralized traffic control system utilizes a single-track configuration
to determine the turnaround point, wherein, a turnaround point priority is configured
for each track according to the role of the final track.
[0019] Further, the manually triggering of previewing the designated hook for the route
further comprises a step of route changing, and the route changing method comprises
changing the turnaround point and selecting a change button.
[0020] The present invention also provides a system for managing and controlling a shunting
operation according to a route shunting request, the system comprises:
[0021] The wireless shunting locomotive signal and monitoring system for acquiring a route
shunting handling request and sending the route shunting handling request to a centralized
traffic control system;
[0022] The centralized traffic control system connected with the wireless shunting locomotive
signal and monitoring system and used for handling the route according to the route
shunting handling request and the route sequence and sending a route shunting handling
result to the wireless shunting locomotive signal and monitoring system to start the
operation;
[0023] The centralized traffic control system connected with a station management information
system and used for sending to the station management information system a reporting
point after each operation is completed so as to implement management and control
of the shunting operation.
[0024] The present invention further provides a shunting operation management and control
system, the system comprises:
A station management information system for acquiring a shunting operation order and
sending the shunting operation order to a centralized traffic control system;
The centralized traffic control system connected with the station management information
system and used for receiving the shunting operation order, determining the turnaround
point according to the shunting operation order, and generating a route sequence and
distributing same to each branch terminal;
The wireless shunting locomotive signal and monitoring system connected with the centralized
traffic control system and used for acquiring the route shunting handling request
and sending the route shunting handling request to the centralized traffic control
system;
The centralized traffic control system is further used for handling a route according
to the route shunting handling request and the route sequence and sending a route
shunting handling result to the wireless shunting locomotive signal and monitoring
system to start an operation;
The centralized traffic control system is further used for sending to the station
management information system a reporting point after each operation is completed
so as to implement management and control of a shunting operation.
[0025] Further, the centralized traffic control system is further used for handling a route
according to the route shunting handling request, comprising automatically triggering
route and manually triggering route.
[0026] Further, the centralized traffic control system is further used for automatically
previewing the route sequence generated after determining the turnaround point.
[0027] Further, the centralized traffic control system is further used for determining the
turnaround point using a single-track configuration, wherein the turnaround point
priority is configured for each track according to the role of the final track.
[0028] The shunting operation management and control method and system of the present invention
bridges the gap between the shunting operation order of the station management information
system, the route handling of the centralized traffic control system, the wireless
shunting locomotive signal and the monitoring of the arteries and is a complete solution
to the shunting operation flow. Full consideration to the shunting management mode
of one station and multiple fields implements one point control and multiple fields
linkage. The process management of shunting operation is strengthened, the efficiency
of shunting operation is improved, the safety of shunting operation is enhanced, the
risk of incorrectly handling the route is reduced, and the informationisation and
automation level of various aspects of shunting operation is improved. Relying on
the existing and mature CTC3.0 system, the present invention has the advantages of
low cost, low risk and good effect.
[0029] Other features and advantages of the present invention will be set forth in the following
specification and will become apparent in part from the specification or will be understood
by practicing the present invention. The object and other advantages of the present
invention can be achieved and attained by the structure pointed out in the specification
the claims and the appended drawings.
BRIEF DESCRIPTION OF DRAWINGS
[0030] In order to explain the embodiments of the present invention or the technical solutions
of the prior art more clearly, a brief description will be given below of the drawings
required for use in the description of the embodiments or the prior art. It is obvious
that the drawings in the following description are some embodiments of the present
invention, and other drawings may be obtained from these drawings without any creative
effort by a person of ordinary skill in the art.
FIG. 1 shows a flow chart of the shunting operation management and control method
in an embodiment of the present invention.
FIG. 2 shows a shunting operation role relationship connection schematic diagram in
the embodiment of the present invention.
DETAILED DESCRIPTION
[0031] In order to make the object, technical solution and advantages of the embodiment
of the present invention clearer, the technical solution of the embodiments of the
present invention will be clearly and completely described below in conjunction with
the accompanying drawings in the embodiments of the present invention, and it will
be apparent that the described embodiments are part of, but not all of, the embodiments
of the present invention. Based on the embodiments in the present invention, all other
embodiments obtained by those of ordinary skill in the art without making creative
efforts are within the scope of protection of the present invention.
[0032] The present invention provides a shunting operation management and control solution
based on CTC3.0 system, which is used for standardizing shunting operation flow, improving
operation safety and achieving the purpose of integrating management and control.
[0033] According to the present invention, the telephone communication, route determination,
route button selection and other processes in shunting operation are evolved into
various process of the system; automatically generating route sequence according to
SMIS (Station Management Information System) shunting plan (i.e. shunting operation
order), and just triggering route sequence when handling route; the outdoor dispatching
driver sends a route shunting handling request to CTC through STP (Shunting Train
Protection) system, and CTC automatically handles the route after receiving the request;
by calculating the conflict between each operation and the train plan in real time
and providing the route preview function, the conflict can be predicted in advance;
summarizing and managing the shunting plans and distributing same to each branch for
execution, so as to implement the effect of global visibility of one shunting locomotive,
one plan, and multiple operations. The present invention also feeds back the actual
execution progress of the shunting operation to the SMIS planning end in real time,
replacing the original manual recording mode and realizing the integration of management
and control.
[0034] The embodiment of the present invention provides a shunting operation management
and control method. FIG. 1 shows a flow chart of the shunting operation management
and control method in the embodiment of the present invention. In FIG. 1, the method
comprises the following steps:
The station management information system acquires the shunting operation order and
sends the shunting operation order to the centralized traffic control system;
The centralized traffic control system receives the shunting operation order, and
determines the turnaround point according to the shunting operation order, and generates
a route sequence, and distributes same to each branch terminal;
The wireless shunting locomotive signal and monitoring system acquires a route shunting
handling request and sends the route shunting handling request to the centralized
traffic control system;
The centralized traffic control system handles a route according to the route shunting
handling request and sends a route shunting handling result to the wireless shunting
locomotive signal and monitoring system to start an operation;
The centralized traffic control system sends to the station management information
system the reporting point after each operation is completed, so as to implement management
and control of a shunting operation;
The embodiment of the present invention provides a connection diagram of the personnel
work with the system to perform shunting operations, and the shunting operation is
controlled by the specific personnel and the system. In the process of practical application,
the personnel can also be a terminal system and the like, and is not limited to special
personnel, as long as the terminals and devices that can complete the management and
control operation of the present invention are within the protection scope of the
embodiment of the present invention.
[0035] As shown in FIG. 2, FIG. 2 shows a schematic connection diagram of the relationship
of shunting operation roles in the embodiment of the present invention, wherein the
roles include operators and system devices, and each connection line represents the
routine action of the role.
[0036] When the personnel of the present invention cooperate with the system to carry out
shunting operation control:
Step 1. The station dispatcher makes shunting operation plans according to the daily
shift plan in SMIS, that is, compiles the shunting operation order;
Step 2. SMIS sends the shunting operation order to the CTC;
Step 3. The station chief attendant receives the SMIS shunting operation order in
the CTC, and determines the turnaround point according to the shunting operation order,
and generates the route sequence, and the CTC previews the route of the whole order
is correct and distributes same to the signalman/attendant of each branch;
Step 4. The shunting driver initiates the route shunting handling request to the STP
device;
Step 5. STP forwards the driver's route shunting handling request to the CTC;
Step 6. Under normal circumstances, the CTC automatically handles the route after
receiving the request, and the branch attendant only needs to watch and control the
shunting route correctly handled. If the route cannot be automatically triggered according
to the driver's route shunting handling request in special circumstances, the branch
attendant needs to intervene manually to complete the route handling;
Step 7. The CTC will feed back the handling status of the route shunting handling
result to the STP, and the dispatching driver will confirm that the route signal is
ready and start the operation;
Step 8. After each operation is completed, the CTC sends the time point of completion
(referred to as reporting point) to SMIS, SMIS turns it into actual performance according
to the shunting plan of reporting point, thus implementing the integration of management
and control.
[0037] Specifically, when the branch attendant manually intervenes to trigger the route,
he/she can preview the route, and when manually triggers the route, he/she can preview
the processed route and the conflict between the route and the train plan. When there
are outstanding situations, in order to enhance the flexibility and availability of
the system, the system provides users with a change route set, and manually can select
the change route by changing the turnaround point and selecting the change button.
[0038] The present invention designs a "1 + N" mode to solve the management and control
problem of shunting operation in one station and multiple fields and implements the
effects of global visibility of one shunting locomotive, one plan, and multiple operations.
One general shunting plan management terminal is responsible for unified management
of shunting plans of each shunting locomotive. The chief attendant is responsible
for signing and determining the plan, including checking the plan, controlling the
train sequence between fields, determining the shunting turnaround point, coordinating
the shunting conflict, etc., maintaining an accurate executable plan and distributing
same to N signalman terminals in the branch. The signalman terminal of each branch
can check the details and implementation of all the operation orders, know the position
and operation progress of the dispatching machine in time, and make preparations in
advance to complete the determination and handling of the route path of the field
when the dispatching machine needs to work in this field. On the premise of not changing
the plan, the signalman can adjust the basic route to the changed route, and if necessary,
adjust the turnaround point, and the adjusted route information will be displayed
synchronously at each terminal.
[0039] Specifically, the N of 1+N mode can be 0, which means that there is only one attendant
in the station to control the shunting route. At this time, the attendant has all
the authority, that is, when there is only one attendant in the station, the attendant
can preview the handled route and the conflict between the route and the train plan
when manually triggering the route preview and can directly change the conflicting
route to enhance the flexibility and usability of the system.
[0040] The CTC in the embodiment of the present invention can also carry out receiving and
handling of shunting operation order, calculation of turnaround point, route search,
route preview, route trigger, reporting point, shunting operation order management
and the like.
[0041] When the CTC receives the shunting operation order in the embodiment of the present
invention, the CTC and the SMIS belong to two independent systems to avoid communication
obstacles due to different data definitions during signal transmission between the
CTC and the SMIS. The embodiment of the present invention converts the SMIS data code
into a CTC data dictionary, which mainly contains information such as station code,
field number, head and tail direction, operation track, etc. This conversion is necessary
for background calculation. However, the operation order information displayed to
the user is consistent with the original operation order, because the naming of the
SMIS is more consistent with the production habit, while the naming of the CTC continuous
interlocking signal system is standardized and rigorous, but inconsistent with the
customary naming, which is not conducive to communication.
[0042] When CTC calculates the turnaround point in the embodiment of the present invention,
a shunting operation order comprises a plurality of operation plans, and CTC finds
the most suitable turnaround point C according to the starting track A, the head and
tail direction and the final track B of each plan. At the same time, because the turnaround
point may be changed when the manual trigger of the present invention, the CTC also
provides all optional turnaround point sets for manual selection. The turnaround point
means that after the adjuster moves out of A, it needs to change direction at the
turnaround point before reaching B. The optimal turnaround point C and other optional
turnaround points need to be determined by the train attendants according to the actual
operation habits on site, and then entered into the system after determination. There
are so many combinations of starting track and ending track that it is necessary to
find an effective and feasible method to calculate the turnaround point.
[0043] The present invention adopts the mode of configuring the turnaround point according
to a single track, and configures the turnaround point priority for each track according
to the role of the final track. From A to B, we only need to select the turnaround
point from the turnaround point set of B according to the priority. If there is a
connecting shunting route from A to the turnaround point, the turnaround point is
the optimal turnaround point C. This method not only meets the functional requirements,
but also simplifies the configuration strategy of turnaround points and simplifies
the communication cost with car attendants.
[0044] The route search is calculated according to the turnaround point. After the turnaround
point C in the embodiment of the present invention is determined, the shunting routes
A to C and C to B are determined, and the CTC system generates the basic route by
default. In order to enhance the flexibility and usability of the system, the system
provides a change route set for users, and the change route can be selected manually
by changing the turnaround point and selecting a change button.
[0045] Specifically, when changing routes, an operation order contains several operations.
When each operation is completed, the system generates a time point to indicate that
the operation is completed, and a plan generally generates one or two routes. The
logic of the generation of the route is as follows:
Step a. Find the start button B 1 of the first route according to A and the head and
tail direction;
Step b. Find the terminal button E2 of the second route according to B;
Step c. Check whether there is a route between the starting B 1 button and the end
E2 button. If there is, the search is completed, and the route is taken as the generated
route;
Step d. Find all route sets with the starting button B 1 as the starting from the
route table, traversing each route R, and checking whether the end of R and the end
E2 of the second route exist the route R2;
Step e. If R2 does not exist, determine whether R is a long shunting route. If R is
a long shunting route, check whether the buttons and E2 on each included short shunting
route section have route R3, and if so, add R and R3 to the route sequence. If R is
a short shunting route, check whether the buttons and E2 on the route section have
route R3, and if so, add R and R3 to the route sequence;
Step f. If R2 exists, both R and R2 are added to the route sequence, and whether the
buttons on the R section and E2 have route R3 is checked, and if so, R3 is added to
the route sequence.
[0046] The route triggering of the embodiment of the present invention comprises two modes:
manual triggering and automatic triggering:
Automatic triggering: the dispatching driver sends out a shunting route request through
STP terminal, and CTC automatically triggers the route after receiving the request.
If the route cannot be triggered temporarily or only part of the route can be triggered
temporarily, the remaining route will be triggered automatically when the triggering
condition is met. Manual triggering: the trigger timing is selected manually, and
the system tries to handle it once.
[0047] The embodiment of the present invention also describes the halfway turnaround situation
in the triggering process and discloses the triggering rules of the halfway turnaround
route: when handling the shunting route, the shunting operation is prevented from
being affected by the short route, and the mode of moving out to the farthest end
is generally adopted. In this way, it often happens that the machine turns back halfway
without taking the whole path. When turning back halfway, the system recalculates
the triggerable route according to the occupied position of the adjuster and completes
the triggering. Trigger the complete switchboard route from the occupied position
to the end to the track or the destination turnaround point one by one. If the switchboard
occupies part of the route, so that the route cannot be triggered if it does not meet
the interlocking conditions, and in order to make up for the signal, the system automatically
locks the turnout of the route and automatically unlocks it after the switchboard
operation is completed. For the sake of safety, in this case of turning back in the
middle, it is necessary to ensure that the turnout position occupied by the shunting
locomotive is consistent with that of the turning back route, otherwise, the route
trigger and automatic single lock operation of the turnout cannot be carried out.
[0048] CTC can implement the preview of shunting route. CTC has automatic preview of the
whole order and designated hook preview. When manually triggering the route, the handled
route and the conflict between the route and the train plan may be previewed, so as
to "find in advance and correct in time", which effectively reducing the possible
problem caused by "executing and determining at the same time".
[0049] Specifically, in the embodiment of the present invention, CTC also generates and
processes the reporting point, and after each operation is completed, CTC timely informs
SMIS of the completion time as the reporting point for shunting identifying that the
plan has been converted into actual performance. Because the situation of turning
back in the middle often occurs in shunting operation, it is impossible to determine
the operation completion status by unlocking the route like the train route. The CTC
of the present invention takes the execution state of the following route as the basis
of judgment, automatically sets the previous hook as the completion state, and sends
the moment as the reporting point information to SMIS. Manual point reporting is adopted
for the last hook operation, and the whole plan is completed after point reporting.
[0050] The embodiment of the present invention also provides a shunting operation management
and control system, the system comprises:
The station management information system is used for acquiring the shunting operation
order and sending the shunting operation order to the centralized traffic control
system;
The centralized traffic control system is connected with the station management information
system, used for receiving the shunting operation order, determining the turnaround
point according to the shunting operation order, generating a route sequence and distributing
same to each branch terminal;
The wireless shunting locomotive signal and monitoring system is connected with the
centralized traffic control system, and is used for acquiring the route shunting handling
request and sending the route shunting handling request to the centralized traffic
control system;
The centralized traffic control system is also used for handling the route according
to the route shunting handling request and sending the route shunting handling result
to the wireless shunting locomotive signal and monitoring system to start the operation;
The centralized traffic control system is also used for sending to the station management
information system the reporting point after each operation is completed so as to
implement management and control of the shunting operation.
[0051] Specifically, the centralized traffic control system is also used for handling a
route according to the route shunting handling request, comprising automatic triggering
route and manual triggering route. The centralized traffic control system is also
used for automatically previewing the route sequence generated after determining the
turnaround point. The centralized traffic control system is also used for determining
the turnaround point by adopting a single-track configuration, wherein, the turnaround
point priority is configured for each track according to the role of the final track.
[0052] Although the present invention has been described in detail with reference to the
foregoing embodiments, it should be understood by those of ordinary skill in the art
that the technical solution described in the foregoing embodiments can still be modified
or some technical features thereof can be equivalently replaced. These modifications
or replacements do not depart the essence of the corresponding technical proposal
from the spirit and scope of the technical proposal of the embodiments of the present
invention.
1. A method of managing and controlling a shunting operation according to a route shunting
request, wherein the method comprising:
a wireless shunting locomotive signal and monitoring system acquiring a route shunting
handling request and sending the route shunting handling request to a centralized
traffic control system;
the centralized traffic control system handling a route according to the route shunting
handling request and the route sequence, and sending a route shunting handling result
to the wireless shunting locomotive signal and monitoring system to start an operation;
the centralized traffic control system sending to the station management information
system a reporting point after each operation is completed so as to implement management
and control of the shunting operation.
2. A shunting operation management and control method, wherein the method comprising:
a station management information system acquiring a shunting operation order and sending
the shunting operation order to a centralized traffic control system;
the centralized traffic control system receiving the shunting operation order, determining
a turnaround point according to the shunting operation order, generating a route sequence,
and distributing same to each branch terminal;
a wireless shunting locomotive signal and monitoring system acquiring a route shunting
handling request and sending the route shunting handling request to the centralized
traffic control system;
the centralized traffic control system handling a route according to the route shunting
handling request and the route sequence, and sending a route shunting handling result
to the wireless shunting locomotive signal and monitoring system to start an operation;
the centralized traffic control system sending to the station management information
system a reporting point after each operation is completed so as to implement management
and control of a shunting operation.
3. The shunting operation management and control method of claim 2, wherein the centralized
traffic control system handling the route according to the route shunting handling
request and the route sequence comprises automatically triggering route and manually
triggering route.
4. The shunting operation management and control method of claim 3, wherein the manually
triggering route comprises a step of route designated hook preview:
wherein, the designated hook preview comprises a handled route path, and the conflict
situation between the handled route path and a train plan.
5. The shunting operation management and control method of claim 3 or 4, wherein, after
the centralized traffic control system determining a turnaround point and generating
the route sequence further comprises a step of automatically route preview,
wherein, the centralized traffic control system previews that the whole route is correct
and then distributes same to each branch terminal.
6. The shunting operation management and control method of claim 2 or 4, wherein the
centralized traffic control system utilizes a single station track configuration to
determine the turnaround point, wherein, a turnaround point priority is configured
for each track according to the role of the final track.
7. The shunting operation management and control method of claim 4, wherein the manually
triggering of previewing the designated hook for the route further comprises a step
of route changing, and the route changing method comprises: changing the turnaround
point and selecting a change button.
8. A system for managing and controlling a shunting operation according to a route shunting
request, the system comprising:
a wireless shunting locomotive signal and monitoring system for acquiring a route
shunting handling request and sending the route shunting handling request to a centralized
traffic control system;
the centralized traffic control system connected with the wireless shunting locomotive
signal and monitoring system, and used for handling a route according to the route
shunting handling request and the route sequence, and sending a route shunting handling
result to the wireless shunting locomotive signal and monitoring system to start an
operation;
the centralized traffic control system connected with a station management information
system and used for sending to the station management information system a reporting
point after each operation is completed so as to implement management and control
of the shunting operation.
9. A shunting operation management and control system, wherein, the system comprising:
a station management information system for acquiring a shunting operation order and
sending the shunting operation order to a centralized traffic control system;
the centralized traffic control system connected with the station management information
system and used for receiving the shunting operation order, determining the turnaround
point according to the shunting operation order, and generating a route sequence and
distributing same to each branch terminal;
the wireless shunting locomotive signal and monitoring system connected with the centralized
traffic control system and used for acquiring the route shunting handling request
and sending the route shunting handling request to the centralized traffic control
system;
the centralized traffic control system is further used for handling a route according
to the route shunting handling request and the route sequence, and sending a route
shunting handling result to the wireless shunting locomotive signal and monitoring
system to start an operation;
the centralized traffic control system is further used for sending to the station
management information system a reporting point after each operation is completed
so as to implement management and control of a shunting operation.
10. The shunting operation management and control system of claim 9, wherein the centralized
traffic control system is further used for handling a route according to the route
shunting handling request, comprising automatically triggering route and manually
triggering route.
11. The shunting operation management and control system of claim 10, wherein the centralized
traffic control system is also used for automatically previewing the route sequence
generated after determining the turnaround point.
12. The shunting operation management and control system of claim 9 or 10, wherein the
centralized traffic control system is further used for determining the turnaround
point using a single-track configuration, wherein the turnaround point priority is
configured for each track according to the role of the final track.