CN116495033A - Method, device, equipment and storage medium for automatically unhooking train coupler - Google Patents

Method, device, equipment and storage medium for automatically unhooking train coupler Download PDF

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Publication number
CN116495033A
CN116495033A CN202310526816.7A CN202310526816A CN116495033A CN 116495033 A CN116495033 A CN 116495033A CN 202310526816 A CN202310526816 A CN 202310526816A CN 116495033 A CN116495033 A CN 116495033A
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target
carriage
couplers
coupler
train
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CN202310526816.7A
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CN116495033B (en
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杜雪飞
魏峰
张根栋
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Chongqing Cisai Tech Co Ltd
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Chongqing Cisai Tech Co Ltd
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    • BPERFORMING OPERATIONS; TRANSPORTING
    • B61RAILWAYS
    • B61LGUIDING RAILWAY TRAFFIC; ENSURING THE SAFETY OF RAILWAY TRAFFIC
    • B61L27/00Central railway traffic control systems; Trackside control; Communication systems specially adapted therefor
    • B61L27/04Automatic systems, e.g. controlled by train; Change-over to manual control

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  • Engineering & Computer Science (AREA)
  • Mechanical Engineering (AREA)
  • Train Traffic Observation, Control, And Security (AREA)
  • Warehouses Or Storage Devices (AREA)

Abstract

The invention discloses a method, a device, equipment and a storage medium for automatically picking and hanging a car coupler of a train, which comprises the following steps: detecting the states of the couplers of all the carriages of the train, and acquiring the distance between the carriages when all the couplers are in a locking state; when the intervals of all carriages are in a preset interval range, acquiring each carriage number of the train, and generating an uncoupling hook request and a trailer hook request; determining a first target carriage according to the coupler request, sequentially generating unlocking control signals of the first target coupler, and detecting the state of the first target coupler; determining a second target carriage according to a trailer hook request, sequentially generating a full-open control signal of the second target coupler, and detecting the state of the second target coupler; and after all the second target couplers are in the fully opened state, controlling each trailer carriage to be picked to move, thereby completing the automatic picking and hanging of the train couplers. The invention solves the technical problems of easy breakage of the coupler and low coupler uncoupling efficiency in the prior art.

Description

Method, device, equipment and storage medium for automatically unhooking train coupler
Technical Field
The invention relates to the technical field of train control, in particular to a method, a device, equipment and a storage medium for automatically unhooking and hanging a coupler of a train.
Background
With the development of train automation technology, the functions of train operation, vehicle door opening and closing, broadcasting, motor train or train charging, navigation positioning, train state detection and monitoring and the like are all automated, so that the workload of workers in the aspects of vehicle operation, vehicle maintenance and the like is reduced.
At present, the train consists of one car, so that the coupler between the cars is a key device for connecting the cars, but in the process of connecting or disconnecting the cars, the coupler between the cars needs to be unhooked, while the unhooking process of the coupler of the existing train can be controlled remotely by staff in a car dispatching center or a master control desk, but the background control and operation still need to be performed manually, meanwhile, the train has inertia and displacement in the process from moving to stopping, namely, the relative movement of the two couplers in all directions after being connected, in order to avoid the fact that a movement allowance is designed between the car inertia and the general coupler, the connecting coupler between the cars is not in a proper position for unhooking, and the unified control is performed on the multiple couplers, so that the forced unhooking action is easy to be performed, and the damage or breakage of the coupler device is easy to be caused.
Therefore, a method for automatically unhooking the coupler, avoiding the coupler from breaking and improving the coupler unhooking efficiency is needed at present.
Disclosure of Invention
The invention provides a method, a device, equipment and a storage medium for automatically unhooking a coupler of a train, which are used for solving the technical problems that the coupler cannot be automatically unhooked, the coupler is easy to break and the coupler unhooking efficiency is low in the prior art.
In order to solve the technical problems, an embodiment of the present invention provides a method for automatically unhooking a train coupler, including:
detecting the states of the couplers of all the carriages of the train, and acquiring the distance between the carriages when all the couplers are in a locking state;
when the intervals of all the carriages are in a preset interval range, acquiring each carriage number of the train, and determining a trailer carriage to be picked and the number thereof according to a preset carriage scheduling plan of the train, thereby generating a coupler picking request and a trailer hook request; the preset carriage dispatching plan comprises carriage numbers corresponding to the carriages after the carriages are picked up and placed in the train, and the number of the carriages to be picked up is at least one;
determining a first target carriage from the to-be-picked carriage according to the coupler picking request, and generating a first target coupler list corresponding to the first target carriage, so that unlocking control signals of the first target couplers are sequentially generated according to the first target coupler list, and after all the first target couplers receive the unlocking control signals corresponding to the first target couplers, state detection is carried out on the first target couplers; the first target carriage list comprises a plurality of first target carriages, and the first target car coupler list comprises a front first target car coupler and a rear first target car coupler to be unhooked, which correspond to each first target carriage;
When all the first target couplers are in an unlocking state, determining a second target car from the to-be-picked cars according to the trailer coupler request, and generating a second target coupler list corresponding to the second target car, so that full-open control signals of the second target couplers are sequentially generated according to the second target coupler list, and state detection is carried out on the second target couplers after all the first target couplers receive the corresponding full-open control signals; the second target carriage list comprises a plurality of second target carriages, and the second target car coupler list comprises one or two second target car couplers to be unhooked corresponding to each second target carriage;
and after all the second target couplers are in a fully opened state, controlling each trailer carriage to be picked to move, and generating all coupler locking signals after checking the train carriage and the preset carriage scheduling plan, thereby completing automatic picking and hanging of the train couplers.
As a preferred scheme, the state detection is performed on couplers of all carriages of a train, and when all couplers are in a locking state, the separation distance between the carriages is obtained, specifically:
the method comprises the steps that state detection is carried out on couplers of all carriages of a train through a coupler state detection encoder, so that the couplers are in an initialized locking state; the state of the coupler comprises a locking state, an unlocking state and a fully-opened state;
When the coupler is in a locking state, the distance between the train carriages is measured by the distance radar.
As a preferred scheme, when the intervals of all the carriages are in a preset interval range, the carriage numbers of the train are obtained, and the trailer carriage to be picked and the number thereof are determined according to a preset carriage dispatching plan of the train, so as to generate a hook picking request and a hook picking request, specifically:
when the intervals of all carriages are in a preset interval range, identifying each carriage number of the train by reading the RFID chip of each carriage of the train, and taking the carriage number as the corresponding carriage number before picking up the trailer carriage;
comparing a preset carriage dispatching plan of the train with a carriage number corresponding to the front of the trailer carriage, screening out carriage numbers only existing in the front of the trailer carriage or behind the trailer carriage as the number of the carriage to be picked up, and determining to obtain the trailer carriage to be picked up;
when only the number of the compartment before the compartment is picked up exists in the numbers of the compartments to be picked up, a hook picking request is generated, and a trailer hook request filled with blank data is generated;
when only the number of the compartment after the compartment is picked up exists in the numbers of the compartment to be picked up, a trailer hook request is generated, and a trailer hook request filled with blank data is generated;
And when the numbers of the to-be-picked trailer compartments are all compartment numbers before and after the picking of the trailer compartments, generating a picking hook request and a picking hook request.
As a preferred solution, according to the request for picking the car, a first target car is determined from the cars to be picked, and a first target car list corresponding to the first target car is generated, so that according to the first target car list, unlocking control signals of the first target car are sequentially generated, and after all the first target car receives the unlocking control signals corresponding to the first target car, state detection is performed on the first target car, which specifically includes:
according to the car picking request, the car number which belongs to the front of the car to be picked is screened from the cars to be picked, so that the first target car is determined;
setting all front and rear couplers of the first target carriage as first target couplers, and generating a first target coupler list corresponding to the first target carriage;
and sequentially generating unlocking control signals corresponding to the first target couplers according to the first target coupler list, so that after each unlocking control signal is generated, the unlocking control signals are sent to the corresponding first target couplers, the states of the first target couplers are monitored through a coupler state detection encoder, and when the first target couplers are in an unlocking state, the unlocking control signals are generated for the next first target coupler in the first target coupler list until all the first target couplers finish the generation and state detection of the unlocking control signals.
As a preferred solution, when all the first target couplers are in an unlocking state, according to the trailer hook request, determining a second target carriage from the to-be-picked trailer carriages, and generating a corresponding second target coupler list, specifically:
when all the first target car couplers are in an unlocking state, screening car numbers belonging to the picked cars from the cars to be picked according to the trailer hook request, so as to determine the second target car;
sorting the carriage numbers after all the carriages are picked up according to the preset train dispatching plan to obtain a final carriage sorting, and determining a second target coupler corresponding to the second target carriage according to the position of the second target carriage in the final carriage sorting;
when the second target carriage is positioned between the two carriages at the final carriage sequencing position, taking the two couplers of the second target carriage as second target couplers;
when the second target carriage is at the position of the head and tail of the train at the final carriage sequencing position, the couplers of the second target carriage connected with the rest carriages are used as second target couplers;
And generating a second target coupler list according to the second target couplers determined by all the second target carriages.
As a preferred solution, the step of sequentially generating the full-open control signals of the second target coupler according to the second target coupler list, so that after all the first target couplers receive the corresponding full-open control signals, the step of performing state detection on the second target couplers specifically includes:
and sequentially generating full-open control signals corresponding to the second target couplers according to the second target coupler list, so that after one full-open control signal is generated, the full-open control signals are sent to the corresponding second target couplers, the states of the second target couplers are monitored through a coupler state detection encoder, and when the second target couplers are in an unlocking state, the generation of the full-open control signals is carried out on the next second target coupler in the second target coupler list until all the second target couplers finish the generation and state detection of the full-open control signals.
As a preferred solution, after all the second target couplers are in a fully opened state, each trailer to be picked is controlled to move, and after the train carriage and the preset carriage scheduling plan are checked, all the coupler locking signals are generated, so that the automatic picking and hanging of the train couplers are completed, specifically:
After all the second target couplers are in a fully-opened state, positioning the position of the carriage to be picked by reading the RFID chip of the carriage to be picked;
generating a corresponding control scheduling plan of the carriage to be picked up based on the position of the carriage to be picked up through a train terminal command system;
performing movement control on each trailer carriage to be picked according to the control scheduling plan so as to enable each trailer carriage to be picked to move to the connection position corresponding to the train carriage, and positioning the position of the trailer carriage to be picked in real time through an RFID chip of the trailer carriage to be picked;
when the position of the trailer carriage to be picked is positioned in real time and is the same as the position of each carriage in the preset carriage scheduling plan, generating an actual carriage sequence after the carriage is currently picked, and carrying out consistency check on the actual carriage sequence and the final carriage sequence;
after the consistency check is passed, corresponding locking signals of all the couplers are generated, and state detection is carried out on all the couplers, so that when all the couplers are in a locking state, automatic uncoupling of the couplers of the train is completed.
Correspondingly, the invention also provides a device for automatically picking and hanging the coupler of the train, which comprises: the system comprises an initialization module, a request module, a first target coupler module, a second target coupler module and a coupler locking module;
The initialization module is used for carrying out state detection on the couplers of all carriages of the train and acquiring the distance between the carriages when all the couplers are in a locking state;
the request module is used for acquiring the compartment numbers of the train when the intervals of all the compartments are in a preset interval range, determining the trailer compartment to be picked and the number thereof according to a preset compartment scheduling plan of the train, and generating a hook picking request and a hook picking request; the preset carriage dispatching plan comprises carriage numbers corresponding to the carriages after the carriages are picked up and placed in the train, and the number of the carriages to be picked up is at least one;
the first target coupler module is used for determining a first target carriage from the to-be-picked carriage according to the coupler picking request and generating a first target coupler list corresponding to the first target carriage, so that unlocking control signals of the first target couplers are sequentially generated according to the first target coupler list, and after all the first target couplers receive the unlocking control signals corresponding to the first target couplers, state detection is carried out on the first target couplers; the first target carriage list comprises a plurality of first target carriages, and the first target car coupler list comprises a front first target car coupler and a rear first target car coupler to be unhooked, which correspond to each first target carriage;
The second target coupler module is configured to determine a second target car from the to-be-picked cars according to the trailer hook request when all the first target couplers are in an unlocking state, and generate a corresponding second target coupler list, so that a full-open control signal of the second target coupler is sequentially generated according to the second target coupler list, so that after all the first target couplers receive the corresponding full-open control signals, state detection is performed on the second target couplers; the second target carriage list comprises a plurality of second target carriages, and the second target car coupler list comprises one or two second target car couplers to be unhooked corresponding to each second target carriage;
and the car coupler locking module is used for controlling each trailer carriage to be picked to move after all the second target car couplers are in a fully-opened state, and generating all car coupler locking signals after checking the train carriage and the preset carriage scheduling plan, so that the automatic picking and hanging of the train car couplers are completed.
Correspondingly, the invention also provides a terminal device which comprises a processor, a memory and a computer program stored in the memory and configured to be executed by the processor, wherein the method for automatically unhooking and unhooking the train coupler according to any one of the above is realized when the processor executes the computer program.
Correspondingly, the invention also provides a computer readable storage medium, which is characterized in that the computer readable storage medium comprises a stored computer program, wherein the computer program is used for controlling equipment where the computer readable storage medium is located to execute the method for automatically picking and hanging the train coupler according to any one of the above methods.
Compared with the prior art, the embodiment of the invention has the following beneficial effects:
according to the technical scheme, the initial state of the car couplers of all the cars of the train is determined by detecting the state of the car couplers, the distance between the cars is detected, the fact that the car couplers are not in a reasonable position capable of being hooked due to inertia generated when the train is stopped is avoided in the automatic hooking process, the fact that the car couplers are damaged or broken easily due to forced hooking actions is avoided, the car couplers to be hooked are determined through the number of each car of the train and a preset car dispatching plan, and corresponding hook coupler requests and trailer coupler requests are generated, so that the train can be firstly hooked in the hooking process of the car couplers, the hook hooking operation is carried out after the hook hooking process is completed, the fact that the hook couplers are unhooked and lose-broken due to the fact that the hook hooking process is carried out simultaneously is avoided, meanwhile, the hook hooking of the car couplers is difficult to achieve the detection of the state is avoided, meanwhile, the generated control message structure is complex, the server is long in time, the hook hooking of the car couplers cannot be efficiently and accurately carried out, the data analysis and the data self-checking of the car couplers are easily caused by the interference of signals, and the data analysis and the data self-checking of the trailer are failed, and the success rate of the car couplers is further improved, and the automatic hook hooking and the car coupler hook is well-hooked is well checked, and the automatic and the car coupler hook is well checked.
Drawings
Fig. 1: the method for automatically unhooking and hanging the coupler of the train comprises the following steps of a flow chart;
fig. 2: the embodiment of the invention provides a device structure diagram of an automatic train coupler picking and hanging device.
Detailed Description
The following description of the embodiments of the present invention will be made clearly and completely with reference to the accompanying drawings, in which it is apparent that the embodiments described are only some embodiments of the present invention, but not all embodiments. All other embodiments, which can be made by those skilled in the art based on the embodiments of the invention without making any inventive effort, are intended to be within the scope of the invention.
Example 1
Referring to fig. 1, a method for automatically unhooking a train coupler according to an embodiment of the present invention includes steps S101-S105:
step S101: and detecting the states of the couplers of all the carriages of the train, and acquiring the distance between the carriages when all the couplers are in a locking state.
As a preferred solution of this embodiment, the detecting the states of the couplers of all the carriages of the train, and when all the couplers are in a locked state, obtaining the separation distance between the carriages specifically includes:
The method comprises the steps that state detection is carried out on couplers of all carriages of a train through a coupler state detection encoder, so that the couplers are in an initialized locking state; the state of the coupler comprises a locking state, an unlocking state and a fully-opened state; when the coupler is in a locking state, the distance between the train carriages is measured by the distance radar.
It should be noted that, the present train coupler includes a spiral coupler, an automatic coupler, a tight-lock automatic coupler, a rotary coupler, etc., and the freight train coupler mainly adopts an automatic coupler, which mainly pulls up the coupler lever of the carriage to be pulled up, and then controls the carriage to pull open or collide with another carriage coupler, so that the coupler is pulled up or pulled up.
In the embodiment, the state detection of the couplers of all carriages of the train can be performed by reading the coupler state detection encoder, and the states of the automatic couplers of the carriages comprise a locking state, an unlocking state and a fully-opened state; the locking state is a state that the coupler knuckle of the coupler is blocked by the coupler lock, so that the coupler knuckle cannot rotate outwards to be opened, namely, when every two carriages are connected together, the coupler is in the locking state. The unlocking state is that the lock iron of the coupler lifting rod is lifted, the coupler knuckle can be outwards turned open only by outwards pulling force of two carriages, and the coupler is in a state of exiting, so that when the coupler of one carriage is at the unlocking position during uncoupling, the two carriages connected together can be separated. The fully opened state is a state that the coupler knuckle is completely outwards turned, and when two carriages need to be connected and hooked, the coupler of one carriage is only required to be in the fully opened position, so that the coupler can be hooked after collision with the coupler of the other carriage.
In the preferred embodiment, positioning information of each carriage is obtained by reading an RFID chip of each carriage, and a first detection distance between the carriages is calculated according to the positioning information of each carriage and the length of a preset carriage; when the first detection distance is smaller than the preset compartment distance, detecting the compartment distance through a vehicle-mounted radar among the compartments to obtain a second detection distance; and correcting the second detection distance by combining the positioning information of each carriage, so that the corrected second detection distance is used as the interval between the corresponding carriages.
In this embodiment, the positioning information of each carriage of the train is determined through the RFID chip of each carriage, so that the detected train number and the carriage corresponding to the train can be ensured, and since in the automatic dispatch control system, the coupler hooking of one train is not necessarily controlled in a single thread mode, the accuracy of measuring the inter-carriage distance can be further improved by firstly determining the positioning information of the measured train carriage, the problem that the control error is easy to be caused when the coupler hooking is controlled in a plurality of trains in a multi-thread mode is avoided, and when the first detection distance is smaller than the preset carriage distance, the detected train belongs to the carriage on the same normal running train, the carriage with the distance larger than the preset carriage distance is the carriage with the possibility of identification error, so that the error carriage can be directly rejected and alarmed, and the error carriage can be further detected by staff.
Further, by detecting the carriage with the first detection distance smaller than the preset carriage distance and then detecting the vehicle-mounted radar, the accuracy of carriage distance detection can be improved, namely the distance between the carriages is the real carriage distance, and the measurement reliability and the authenticity are improved.
It can be understood that the couplers of all carriages of the train are determined to be in an initialized state, so that the uniformity of all coupler states in the process of executing automatic coupler uncoupling can be ensured, and further, coupler control errors caused by the non-uniformity of coupler states can be avoided in the process of carrying out automatic coupler control, the occurrence of coupler control errors is reduced, and the accuracy and the efficiency of coupler control are further improved.
Step S102: when the intervals of all the carriages are in a preset interval range, acquiring each carriage number of the train, and determining a trailer carriage to be picked and the number thereof according to a preset carriage scheduling plan of the train, thereby generating a coupler picking request and a trailer hook request; the preset carriage dispatching plan comprises carriage numbers corresponding to the carriages after the carriages are picked up and arranged in the train, and the number of the carriages to be picked up is at least one.
As a preferred solution of this embodiment, when the intervals of all the carriages are within the preset interval range, the numbers of the carriages of the train are obtained, and the trailer carriage to be picked and the number thereof are determined according to the preset carriage scheduling plan of the train, so as to generate a hook picking request and a hook picking request, specifically:
When the intervals of all carriages are in a preset interval range, identifying each carriage number of the train by reading the RFID chip of each carriage of the train, and taking the carriage number as the corresponding carriage number before picking up the trailer carriage; comparing a preset carriage dispatching plan of the train with a carriage number corresponding to the front of the trailer carriage, screening out carriage numbers only existing in the front of the trailer carriage or behind the trailer carriage as the number of the carriage to be picked up, and determining to obtain the trailer carriage to be picked up; when only the number of the compartment before the compartment is picked up exists in the numbers of the compartments to be picked up, a hook picking request is generated, and a trailer hook request filled with blank data is generated; when only the number of the compartment after the compartment is picked up exists in the numbers of the compartment to be picked up, a trailer hook request is generated, and a trailer hook request filled with blank data is generated; and when the numbers of the to-be-picked trailer compartments are all compartment numbers before and after the picking of the trailer compartments, generating a picking hook request and a picking hook request.
In this embodiment, when the intervals of all the carriages are within the preset interval range, that is, the carriages are already in the step of normal unhooking operation, so that the automatic operation step of unhooking the coupler can be directly performed, and the number of each carriage of the train is obtained and combined with the preset train scheduling plan, so that the carriages with different carriage numbers in the preset train scheduling plan are obtained, that is, the carriages are used as the trailer carriage to be unhooked and the number thereof. The preset train dispatching plan is designated or acquired by a vehicle dispatching control center, and can be specifically designed and generated by a computer through a vehicle dispatching algorithm or manual demands.
In the preferred embodiment, when the distance between the carriages exceeds the preset interval range, positioning the adjusted carriages exceeding the preset interval range, and taking all carriages connected with the other end of the adjusted carriages as a readjusted carriage group; generating a displacement signal for controlling the readjustment carriage group according to the spacing of the adjustment carriage so as to enable the readjustment carriage group to move, thereby enabling the spacing of the adjustment carriage to be smaller than a preset spacing range; and re-monitoring the intervals of the carriages in the readjusted carriage group through the vehicle-mounted radar until the intervals of all carriages are controlled to be in a preset interval range.
In this embodiment, when it is detected that the distance between the cars exceeds the interval range of the normal unhooking operation, the distance between the cars exceeding the interval range can be quickly adjusted, and because the cars are connected together through the coupler before the unhooking operation, when the adjusted cars are moved, displacement is generated in all the cars connected to the other end of the adjusted cars, and therefore, the distance between the cars needs to be determined and adjusted again, so that the distance between the cars is prevented from not meeting the requirement of unhooking the coupler.
In this embodiment, only the number of the carriage before the carriage is picked up is existed in the number of the carriage to be picked up, that is, no new carriage is needed to be added, only the original carriage is needed to be removed, which means that the train only needs to be picked up, no trailer hook operation is needed, and in order to control the unified data structure of the message, the trailer hook requests to fill in blank data, thereby avoiding the long analysis time and high error rate of the server caused by the diversity of the message structure.
Further, only the number of the car after the car is picked up is existed in the number of the car to be picked up, namely, the car of the original train is not required to be removed, but a new car is required to be added, which means that the train only needs to carry out the operation of the coupler and does not need to carry out the operation of the coupler, so that the coupler requests to fill blank data.
Step S103: determining a first target carriage from the to-be-picked carriage according to the coupler picking request, and generating a first target coupler list corresponding to the first target carriage, so that unlocking control signals of the first target couplers are sequentially generated according to the first target coupler list, and after all the first target couplers receive the unlocking control signals corresponding to the first target couplers, state detection is carried out on the first target couplers; the first target car list comprises a plurality of first target cars, and the first target car list comprises front and rear first target car couplers to be unhooked, which correspond to the first target cars.
As a preferred solution of this embodiment, according to the request for picking a car, a first target car is determined from the cars to be picked, and a first target car list corresponding to the first target car is generated, so that according to the first target car list, unlocking control signals of the first target car are sequentially generated, and after all the first target car receives the unlocking control signals corresponding to the first target car, state detection is performed on the first target car, which specifically includes:
according to the car picking request, the car number which belongs to the front of the car to be picked is screened from the cars to be picked, so that the first target car is determined; setting all front and rear couplers of the first target carriage as first target couplers, and generating a first target coupler list corresponding to the first target carriage; and sequentially generating unlocking control signals corresponding to the first target couplers according to the first target coupler list, so that after each unlocking control signal is generated, the unlocking control signals are sent to the corresponding first target couplers, the states of the first target couplers are monitored through a coupler state detection encoder, and when the first target couplers are in an unlocking state, the unlocking control signals are generated for the next first target coupler in the first target coupler list until all the first target couplers finish the generation and state detection of the unlocking control signals.
In this embodiment, through the coupler picking request, the car number before the hooked car can be screened from the car to be picked, that is, the car number before the hooked car is the train car that needs to be picked from the original train, so that the train car is used as the first target car, the problem that the control scheme of the existing automatic hooked car is inaccurate in car target control due to simultaneous implementation is avoided, meanwhile, the coupler picking operation is different from the coupler operation of the hook, the number of couplers of the corresponding cars is different, and therefore the message structure for controlling the coupler operation in the prior art is complex, so that the terminal control server is slow in analysis speed, high in error rate and easy to have the problem of data analysis failure. According to the method and the device for controlling the unlocking control signals of the train coupler, the first target carriage and the first target coupler list of the train coupler are directly determined, so that the train terminal control server is small in data processing amount and high in analysis speed, meanwhile, the structure of the control signal messages is uniform, the error rate of data analysis is low, and the accuracy is high.
Further, when the request for the coupler is blank data, it indicates that the first target car and the first target coupler do not exist, and step S104 may be directly performed.
Step S104: when all the first target couplers are in an unlocking state, determining a second target car from the to-be-picked cars according to the trailer coupler request, and generating a second target coupler list corresponding to the second target car, so that full-open control signals of the second target couplers are sequentially generated according to the second target coupler list, and state detection is carried out on the second target couplers after all the first target couplers receive the corresponding full-open control signals; the second target car list comprises a plurality of second target cars, and the second target car list comprises one or two second target car couplers to be unhooked corresponding to each second target car.
As a preferred solution of this embodiment, when all the first target couplers are in an unlocked state, according to the trailer hook request, a second target car is determined from the to-be-picked trailer cars, and a corresponding second target coupler list is generated, which specifically includes:
when all the first target car couplers are in an unlocking state, screening car numbers belonging to the picked cars from the cars to be picked according to the trailer hook request, so as to determine the second target car; sorting the carriage numbers after all the carriages are picked up according to the preset train dispatching plan to obtain a final carriage sorting, and determining a second target coupler corresponding to the second target carriage according to the position of the second target carriage in the final carriage sorting; when the second target carriage is positioned between the two carriages at the final carriage sequencing position, taking the two couplers of the second target carriage as second target couplers; when the second target carriage is at the position of the head and tail of the train at the final carriage sequencing position, the couplers of the second target carriage connected with the rest carriages are used as second target couplers; and generating a second target coupler list according to the second target couplers determined by all the second target carriages.
In this embodiment, when all the first target couplers are in the unlocking state, that is, the coupler hooking operation of the train is completed, the coupler needs to be further controlled to perform the coupler hooking operation, and then the car numbers belonging to the cars after the coupler is hooked are screened out from the cars to be hooked, that is, the car numbers after the coupler is hooked are the train cars which need to be newly added to the original train, so that the train cars are used as second target cars.
Further, since the newly added car is not necessarily at the two ends of the train and may be at the middle of the train, the position of the second target car which needs to be removed in the process of hooking the second target car, and when the hooking operation of the car is performed at the head-tail position of the train, the control operation of the coupler at one side of the second target car is only required; when the hooking operation of the carriage is performed at the middle position of the train, the front and rear hooks of the second target carriage are required to be connected with the carriage, so that the control operation of the couplers at the two sides of the second target carriage is involved. Thus, a second target car may have one or two second target couplers. In this embodiment, through a preset train dispatching plan, the car numbers after all the cars are picked up and hung are sequenced to obtain a final car sequencing, so that the positions and the connection relations between the cars can be quickly generated, and further, the second target couplers corresponding to the second target cars and the number of the second target couplers can be quickly determined.
As a preferred solution of this embodiment, according to the second target coupler list, the full-open control signals of the second target couplers are sequentially generated, so that after all the first target couplers receive the corresponding full-open control signals, state detection is performed on the second target couplers, where the method specifically includes:
and sequentially generating full-open control signals corresponding to the second target couplers according to the second target coupler list, so that after one full-open control signal is generated, the full-open control signals are sent to the corresponding second target couplers, the states of the second target couplers are monitored through a coupler state detection encoder, and when the second target couplers are in an unlocking state, the generation of the full-open control signals is carried out on the next second target coupler in the second target coupler list until all the second target couplers finish the generation and state detection of the full-open control signals.
In the embodiment, the problem that the control of the carriage target is inaccurate due to simultaneous implementation in the existing control scheme for automatically picking and hanging the carriage is also avoided, so that the structural uniformity of the car coupler control message is ensured, and the accuracy and the efficiency of data analysis are improved.
Further, when the trailer hook request is blank data, it indicates that the second target car and the second target coupler are not present, and step S105 may be directly performed.
Step S105: and after all the second target couplers are in a fully opened state, controlling each trailer carriage to be picked to move, and generating all coupler locking signals after checking the train carriage and the preset carriage scheduling plan, thereby completing automatic picking and hanging of the train couplers.
As a preferred solution of this embodiment, after all the second target couplers are in a fully opened state, each trailer to be picked is controlled to move, and after checking the train carriage and the preset carriage scheduling plan, all the coupler locking signals are generated, so as to complete automatic picking and hanging of the train couplers, which specifically includes:
after all the second target couplers are in a fully-opened state, positioning the position of the carriage to be picked by reading the RFID chip of the carriage to be picked; generating a corresponding control scheduling plan of the carriage to be picked up based on the position of the carriage to be picked up through a train terminal command system; performing movement control on each trailer carriage to be picked according to the control scheduling plan so as to enable each trailer carriage to be picked to move to the connection position corresponding to the train carriage, and positioning the position of the trailer carriage to be picked in real time through an RFID chip of the trailer carriage to be picked; when the position of the trailer carriage to be picked is positioned in real time and is the same as the position of each carriage in the preset carriage scheduling plan, generating an actual carriage sequence after the carriage is currently picked, and carrying out consistency check on the actual carriage sequence and the final carriage sequence; after the consistency check is passed, corresponding locking signals of all the couplers are generated, and state detection is carried out on all the couplers, so that when all the couplers are in a locking state, automatic uncoupling of the couplers of the train is completed.
In this embodiment, by detecting whether the second target couplers are all in the fully opened state, it can be determined whether the second target couplers in step S104 are fully implemented preparation of the couplers, and since the process of picking the couplers requires movement of the train, that is, the process of picking the first target coupler by pulling out the first target car is implemented, and the process of collision of the second target coupler by the second target car is implemented, in the unlocked state or the fully opened state, the control scheduling plan of the corresponding trailer to be picked is generated based on the position of the trailer to be picked by the train terminal command system, so that movement control of each trailer to be picked is implemented, and pulling out and collision of the trailer to be picked are implemented, and automatic picking and hanging of the couplers in the trailer to be picked is completed.
In order to ensure that displacement control can be performed between the carriages according to a control scheduling plan, the positioning of the carriages needs to be monitored in real time through a positioning technology of an RFID chip, so that after the positions of the carriages to be hooked are positioned in real time, whether the positions of the carriages are the same as the positions of the carriages in a preset carriage scheduling plan is judged, a real-time actual carriage sequence is generated, consistency verification is performed on the final carriage sequencing in the preset carriage scheduling plan, accuracy of the hook positions of the carriages and the carriage is ensured, accurate and rapid hook of the carriages is realized, after the consistency verification is passed, all corresponding hook locking signals are generated, state detection is performed on all the hook, and automatic hook of the train hook is completed when all the hook is in a locking state.
In this preferred embodiment, the command system through the train terminal generates a control scheduling plan of the corresponding car to be picked up based on the position of the car to be picked up, specifically:
calculating the action route of each carriage required to move based on the position of the carriage to be picked up and the idle transfer track through a train terminal control command system; and performing simulation operation on the action routes of the carriages through the simulation system, and generating a control scheduling plan of the carriages to be picked up based on the action routes of the carriages after the simulation operation is successful.
In this embodiment, in order to avoid a collision accident of the carriage or a misplanning of carriage dispatching in the process of automatically controlling the displacement of the carriage, the simulation test is performed on the action route of each carriage needing to be controlled in a moving manner by using the simulation system, so that the safety of automatically controlling the movement of the carriage can be further improved, the occurrence of accident rate is reduced, and further, the action route of each carriage needing to be controlled in a moving manner can be manually planned, so that the smoothness and accuracy of the running of the carriage on the track are improved.
The implementation of the above embodiment has the following effects:
According to the technical scheme, the initial state of the car couplers of all the cars of the train is determined by detecting the state of the car couplers, the distance between the cars is detected, the fact that the car couplers are not in a reasonable position capable of being hooked due to inertia generated when the train is stopped is avoided in the automatic hooking process, the fact that the car couplers are damaged or broken easily due to forced hooking actions is avoided, the car couplers to be hooked are determined through the number of each car of the train and a preset car dispatching plan, and corresponding hook coupler requests and trailer coupler requests are generated, so that the train can be firstly hooked in the hooking process of the car couplers, the hook hooking operation is carried out after the hook hooking process is completed, the fact that the hook couplers are unhooked and lose-broken due to the fact that the hook hooking process is carried out simultaneously is avoided, meanwhile, the hook hooking of the car couplers is difficult to achieve the detection of the state is avoided, meanwhile, the generated control message structure is complex, the server is long in time, the hook hooking of the car couplers cannot be efficiently and accurately carried out, the data analysis and the data self-checking of the car couplers are easily caused by the interference of signals, and the data analysis and the data self-checking of the trailer are failed, and the success rate of the car couplers is further improved, and the automatic hook hooking and the car coupler hook is well-hooked is well checked, and the automatic and the car coupler hook is well checked.
Example two
Referring to fig. 2, an apparatus for automatically unhooking a train coupler according to the present embodiment includes: an initialization module 201, a request module 202, a first target coupler module 203, a second target coupler module 204, and a coupler lock module 205;
the initialization module 201 is configured to perform state detection on couplers of all carriages of a train, and obtain a distance between carriages when all couplers are in a locked state;
the request module 202 is configured to obtain each car number of the train when the distances between all the cars are within a preset interval range, and determine a trailer to be picked and its number according to a preset car dispatch plan of the train, so as to generate a hook picking request and a hook picking request; the preset carriage dispatching plan comprises carriage numbers corresponding to the carriages after the carriages are picked up and placed in the train, and the number of the carriages to be picked up is at least one;
the first target coupler module 203 is configured to determine a first target car from the to-be-picked cars according to the request for picking the target car, and generate a first target coupler list corresponding to the first target car, so that an unlocking control signal of the first target coupler is sequentially generated according to the first target coupler list, so that after all the first target couplers receive the unlocking control signals corresponding to the first target couplers, state detection is performed on the first target couplers; the first target carriage list comprises a plurality of first target carriages, and the first target car coupler list comprises a front first target car coupler and a rear first target car coupler to be unhooked, which correspond to each first target carriage;
The second target coupler module 204 is configured to determine a second target car from the to-be-picked trailer cars according to the trailer hook request when all the first target couplers are in an unlocked state, and generate a corresponding second target coupler list thereof, so that a full-open control signal of the second target coupler is sequentially generated according to the second target coupler list, so that after all the first target couplers receive the corresponding full-open control signals, the second target couplers are subjected to state detection; the second target carriage list comprises a plurality of second target carriages, and the second target car coupler list comprises one or two second target car couplers to be unhooked corresponding to each second target carriage;
the car coupler locking module 205 is configured to control each trailer to be picked to move after all the second target car couplers are in a fully opened state, and generate all car coupler locking signals after checking the train car and the preset car dispatch plan, so as to complete automatic picking and hanging of the train car couplers.
As a preferred scheme, the state detection is performed on couplers of all carriages of a train, and when all couplers are in a locking state, the separation distance between the carriages is obtained, specifically:
The method comprises the steps that state detection is carried out on couplers of all carriages of a train through a coupler state detection encoder, so that the couplers are in an initialized locking state; the state of the coupler comprises a locking state, an unlocking state and a fully-opened state;
when the coupler is in a locking state, the distance between the train carriages is measured by the distance radar.
As a preferred scheme, when the intervals of all the carriages are in a preset interval range, the carriage numbers of the train are obtained, and the trailer carriage to be picked and the number thereof are determined according to a preset carriage dispatching plan of the train, so as to generate a hook picking request and a hook picking request, specifically:
when the intervals of all carriages are in a preset interval range, identifying each carriage number of the train by reading the RFID chip of each carriage of the train, and taking the carriage number as the corresponding carriage number before picking up the trailer carriage;
comparing a preset carriage dispatching plan of the train with a carriage number corresponding to the front of the trailer carriage, screening out carriage numbers only existing in the front of the trailer carriage or behind the trailer carriage as the number of the carriage to be picked up, and determining to obtain the trailer carriage to be picked up;
When only the number of the compartment before the compartment is picked up exists in the numbers of the compartments to be picked up, a hook picking request is generated, and a trailer hook request filled with blank data is generated;
when only the number of the compartment after the compartment is picked up exists in the numbers of the compartment to be picked up, a trailer hook request is generated, and a trailer hook request filled with blank data is generated;
and when the numbers of the to-be-picked trailer compartments are all compartment numbers before and after the picking of the trailer compartments, generating a picking hook request and a picking hook request.
As a preferred solution, according to the request for picking the car, a first target car is determined from the cars to be picked, and a first target car list corresponding to the first target car is generated, so that according to the first target car list, unlocking control signals of the first target car are sequentially generated, and after all the first target car receives the unlocking control signals corresponding to the first target car, state detection is performed on the first target car, which specifically includes:
according to the car picking request, the car number which belongs to the front of the car to be picked is screened from the cars to be picked, so that the first target car is determined;
setting all front and rear couplers of the first target carriage as first target couplers, and generating a first target coupler list corresponding to the first target carriage;
And sequentially generating unlocking control signals corresponding to the first target couplers according to the first target coupler list, so that after each unlocking control signal is generated, the unlocking control signals are sent to the corresponding first target couplers, the states of the first target couplers are monitored through a coupler state detection encoder, and when the first target couplers are in an unlocking state, the unlocking control signals are generated for the next first target coupler in the first target coupler list until all the first target couplers finish the generation and state detection of the unlocking control signals.
As a preferred solution, when all the first target couplers are in an unlocking state, according to the trailer hook request, determining a second target carriage from the to-be-picked trailer carriages, and generating a corresponding second target coupler list, specifically:
when all the first target car couplers are in an unlocking state, screening car numbers belonging to the picked cars from the cars to be picked according to the trailer hook request, so as to determine the second target car;
sorting the carriage numbers after all the carriages are picked up according to the preset train dispatching plan to obtain a final carriage sorting, and determining a second target coupler corresponding to the second target carriage according to the position of the second target carriage in the final carriage sorting;
When the second target carriage is positioned between the two carriages at the final carriage sequencing position, taking the two couplers of the second target carriage as second target couplers;
when the second target carriage is at the position of the head and tail of the train at the final carriage sequencing position, the couplers of the second target carriage connected with the rest carriages are used as second target couplers;
and generating a second target coupler list according to the second target couplers determined by all the second target carriages.
As a preferred solution, the step of sequentially generating the full-open control signals of the second target coupler according to the second target coupler list, so that after all the first target couplers receive the corresponding full-open control signals, the step of performing state detection on the second target couplers specifically includes:
and sequentially generating full-open control signals corresponding to the second target couplers according to the second target coupler list, so that after one full-open control signal is generated, the full-open control signals are sent to the corresponding second target couplers, the states of the second target couplers are monitored through a coupler state detection encoder, and when the second target couplers are in an unlocking state, the generation of the full-open control signals is carried out on the next second target coupler in the second target coupler list until all the second target couplers finish the generation and state detection of the full-open control signals.
As a preferred solution, after all the second target couplers are in a fully opened state, each trailer to be picked is controlled to move, and after the train carriage and the preset carriage scheduling plan are checked, all the coupler locking signals are generated, so that the automatic picking and hanging of the train couplers are completed, specifically:
after all the second target couplers are in a fully-opened state, positioning the position of the carriage to be picked by reading the RFID chip of the carriage to be picked;
generating a corresponding control scheduling plan of the carriage to be picked up based on the position of the carriage to be picked up through a train terminal command system;
performing movement control on each trailer carriage to be picked according to the control scheduling plan so as to enable each trailer carriage to be picked to move to the connection position corresponding to the train carriage, and positioning the position of the trailer carriage to be picked in real time through an RFID chip of the trailer carriage to be picked;
when the position of the trailer carriage to be picked is positioned in real time and is the same as the position of each carriage in the preset carriage scheduling plan, generating an actual carriage sequence after the carriage is currently picked, and carrying out consistency check on the actual carriage sequence and the final carriage sequence;
after the consistency check is passed, corresponding locking signals of all the couplers are generated, and state detection is carried out on all the couplers, so that when all the couplers are in a locking state, automatic uncoupling of the couplers of the train is completed.
It will be clear to those skilled in the art that, for convenience and brevity of description, reference may be made to the corresponding process in the foregoing method embodiment for the specific working process of the above-described apparatus, which is not described herein again.
The implementation of the above embodiment has the following effects:
according to the technical scheme, the initial state of the car couplers of all the cars of the train is determined by detecting the state of the car couplers, the distance between the cars is detected, the fact that the car couplers are not in a reasonable position capable of being hooked due to inertia generated when the train is stopped is avoided in the automatic hooking process, the fact that the car couplers are damaged or broken easily due to forced hooking actions is avoided, the car couplers to be hooked are determined through the number of each car of the train and a preset car dispatching plan, and corresponding hook coupler requests and trailer coupler requests are generated, so that the train can be firstly hooked in the hooking process of the car couplers, the hook hooking operation is carried out after the hook hooking process is completed, the fact that the hook couplers are unhooked and lose-broken due to the fact that the hook hooking process is carried out simultaneously is avoided, meanwhile, the hook hooking of the car couplers is difficult to achieve the detection of the state is avoided, meanwhile, the generated control message structure is complex, the server is long in time, the hook hooking of the car couplers cannot be efficiently and accurately carried out, the data analysis and the data self-checking of the car couplers are easily caused by the interference of signals, and the data analysis and the data self-checking of the trailer are failed, and the success rate of the car couplers is further improved, and the automatic hook hooking and the car coupler hook is well-hooked is well checked, and the automatic and the car coupler hook is well checked.
Example III
Correspondingly, the invention also provides a terminal device, comprising: a processor, a memory, and a computer program stored in the memory and configured to be executed by the processor, when executing the computer program, implementing the method of automatically decoupling a train coupler as in any one of the embodiments above.
The terminal device of this embodiment includes: a processor, a memory, a computer program stored in the memory and executable on the processor, and computer instructions. The processor, when executing the computer program, implements the steps of the first embodiment described above, such as steps S101 to S105 shown in fig. 1. Alternatively, the processor may perform the functions of the modules/units in the above-described apparatus embodiments when executing the computer program, for example, a train automatic coupler-off.
The computer program may be divided into one or more modules/units, which are stored in the memory and executed by the processor to accomplish the present invention, for example. The one or more modules/units may be a series of computer program instruction segments capable of performing the specified functions, which instruction segments are used for describing the execution of the computer program in the terminal device. For example, the request module is configured to obtain each car number of the train when the distances between all the cars are within a preset interval range, and determine a trailer car to be picked and its number according to a preset car dispatch plan of the train, so as to generate a hook picking request and a hook picking request.
The terminal equipment can be computing equipment such as a desktop computer, a notebook computer, a palm computer, a cloud server and the like. The terminal device may include, but is not limited to, a processor, a memory. It will be appreciated by those skilled in the art that the schematic diagram is merely an example of a terminal device and does not constitute a limitation of the terminal device, and may include more or less components than illustrated, or may combine some components, or different components, e.g., the terminal device may further include an input-output device, a network access device, a bus, etc.
The processor may be a central processing unit (Central Processing Unit, CPU), other general purpose processors, digital signal processors (Digital Signal Processor, DSP), application specific integrated circuits (Application Specific Integrated Circuit, ASIC), off-the-shelf programmable gate arrays (Field-Programmable Gate Array, FPGA) or other programmable logic devices, discrete gate or transistor logic devices, discrete hardware components, or the like. The general purpose processor may be a microprocessor or the processor may be any conventional processor or the like, which is a control center of the terminal device, and which connects various parts of the entire terminal device using various interfaces and lines.
The memory may be used to store the computer program and/or the module, and the processor may implement various functions of the terminal device by running or executing the computer program and/or the module stored in the memory and invoking data stored in the memory. The memory may mainly include a storage program area and a storage data area, wherein the storage program area may store an operating system, an application program required for at least one function, and the like; the storage data area may store data created according to the use of the mobile terminal, etc. In addition, the memory may include high-speed random access memory, and may also include non-volatile memory, such as a hard disk, memory, plug-in hard disk, smart Media Card (SMC), secure Digital (SD) Card, flash Card (Flash Card), at least one disk storage device, flash memory device, or other volatile solid-state storage device.
Wherein the terminal device integrated modules/units may be stored in a computer readable storage medium if implemented in the form of software functional units and sold or used as stand alone products. Based on such understanding, the present invention may implement all or part of the flow of the method of the above embodiment, or may be implemented by a computer program to instruct related hardware, where the computer program may be stored in a computer readable storage medium, and when the computer program is executed by a processor, the computer program may implement the steps of each of the method embodiments described above. Wherein the computer program comprises computer program code which may be in source code form, object code form, executable file or some intermediate form etc. The computer readable medium may include: any entity or device capable of carrying the computer program code, a recording medium, a U disk, a removable hard disk, a magnetic disk, an optical disk, a computer Memory, a Read-Only Memory (ROM), a random access Memory (RAM, random Access Memory), an electrical carrier signal, a telecommunications signal, a software distribution medium, and so forth. It should be noted that the computer readable medium contains content that can be appropriately scaled according to the requirements of jurisdictions in which such content is subject to legislation and patent practice, such as in certain jurisdictions in which such content is subject to legislation and patent practice, the computer readable medium does not include electrical carrier signals and telecommunication signals.
Example IV
Correspondingly, the invention further provides a computer readable storage medium, which comprises a stored computer program, wherein the computer program controls equipment where the computer readable storage medium is located to execute the method for automatically decoupling the train coupler according to any one of the embodiments.
The foregoing embodiments have been provided for the purpose of illustrating the general principles of the present invention, and are not to be construed as limiting the scope of the invention. It should be noted that any modifications, equivalent substitutions, improvements, etc. made by those skilled in the art without departing from the spirit and principles of the present invention are intended to be included in the scope of the present invention.

Claims (10)

1. A method for automatically unhooking a coupler of a train, comprising:
detecting the states of the couplers of all the carriages of the train, and acquiring the distance between the carriages when all the couplers are in a locking state;
when the intervals of all the carriages are in a preset interval range, acquiring each carriage number of the train, and determining a trailer carriage to be picked and the number thereof according to a preset carriage scheduling plan of the train, thereby generating a coupler picking request and a trailer hook request; the preset carriage dispatching plan comprises carriage numbers corresponding to the carriages after the carriages are picked up and placed in the train, and the number of the carriages to be picked up is at least one;
Determining a first target carriage from the to-be-picked carriage according to the coupler picking request, and generating a first target coupler list corresponding to the first target carriage, so that unlocking control signals of the first target couplers are sequentially generated according to the first target coupler list, and after all the first target couplers receive the unlocking control signals corresponding to the first target couplers, state detection is carried out on the first target couplers; the first target carriage list comprises a plurality of first target carriages, and the first target car coupler list comprises a front first target car coupler and a rear first target car coupler to be unhooked, which correspond to each first target carriage;
when all the first target couplers are in an unlocking state, determining a second target car from the to-be-picked cars according to the trailer coupler request, and generating a second target coupler list corresponding to the second target car, so that full-open control signals of the second target couplers are sequentially generated according to the second target coupler list, and state detection is carried out on the second target couplers after all the first target couplers receive the corresponding full-open control signals; the second target carriage list comprises a plurality of second target carriages, and the second target car coupler list comprises one or two second target car couplers to be unhooked corresponding to each second target carriage;
And after all the second target couplers are in a fully opened state, controlling each trailer carriage to be picked to move, and generating all coupler locking signals after checking the train carriage and the preset carriage scheduling plan, thereby completing automatic picking and hanging of the train couplers.
2. The method for automatically picking and hanging couplers of a train according to claim 1, wherein the state detection is performed on the couplers of all the carriages of the train, and when all the couplers are in a locking state, the separation distance between the carriages is obtained, specifically:
the method comprises the steps that state detection is carried out on couplers of all carriages of a train through a coupler state detection encoder, so that the couplers are in an initialized locking state; the state of the coupler comprises a locking state, an unlocking state and a fully-opened state;
when the coupler is in a locking state, the distance between the train carriages is measured by the distance radar.
3. The method for automatically unhooking a train coupler according to claim 2, wherein when the intervals of all the carriages are within a preset interval range, the carriage numbers of the train are obtained, and the trailer carriage to be unhooked and the number thereof are determined according to a preset carriage scheduling plan of the train, so as to generate a coupler unhooking request and a trailer coupler request, which are specifically as follows:
When the intervals of all carriages are in a preset interval range, identifying each carriage number of the train by reading the RFID chip of each carriage of the train, and taking the carriage number as the corresponding carriage number before picking up the trailer carriage;
comparing a preset carriage dispatching plan of the train with a carriage number corresponding to the front of the trailer carriage, screening out carriage numbers only existing in the front of the trailer carriage or behind the trailer carriage as the number of the carriage to be picked up, and determining to obtain the trailer carriage to be picked up;
when only the number of the compartment before the compartment is picked up exists in the numbers of the compartments to be picked up, a hook picking request is generated, and a trailer hook request filled with blank data is generated;
when only the number of the compartment after the compartment is picked up exists in the numbers of the compartment to be picked up, a trailer hook request is generated, and a trailer hook request filled with blank data is generated;
and when the numbers of the to-be-picked trailer compartments are all compartment numbers before and after the picking of the trailer compartments, generating a picking hook request and a picking hook request.
4. The method for automatically picking and hanging couplers of a train according to claim 1, wherein the determining a first target car from the to-be-picked cars according to the coupler picking request and generating a corresponding first target coupler list thereof, so as to sequentially generate unlocking control signals of the first target couplers according to the first target coupler list, and after all the first target couplers receive the corresponding unlocking control signals, perform state detection on the first target couplers, specifically:
According to the car picking request, the car number which belongs to the front of the car to be picked is screened from the cars to be picked, so that the first target car is determined;
setting all front and rear couplers of the first target carriage as first target couplers, and generating a first target coupler list corresponding to the first target carriage;
and sequentially generating unlocking control signals corresponding to the first target couplers according to the first target coupler list, so that after each unlocking control signal is generated, the unlocking control signals are sent to the corresponding first target couplers, the states of the first target couplers are monitored through a coupler state detection encoder, and when the first target couplers are in an unlocking state, the unlocking control signals are generated for the next first target coupler in the first target coupler list until all the first target couplers finish the generation and state detection of the unlocking control signals.
5. The method for automatically picking and hanging couplers of a train according to claim 1, wherein when all the first target couplers are in an unlocked state, determining a second target carriage from the to-be-picked carriage according to the trailer hook request, and generating a corresponding second target coupler list, specifically:
When all the first target car couplers are in an unlocking state, screening car numbers belonging to the picked cars from the cars to be picked according to the trailer hook request, so as to determine the second target car;
sorting the carriage numbers after all the carriages are picked up according to the preset train dispatching plan to obtain a final carriage sorting, and determining a second target coupler corresponding to the second target carriage according to the position of the second target carriage in the final carriage sorting;
when the second target carriage is positioned between the two carriages at the final carriage sequencing position, taking the two couplers of the second target carriage as second target couplers;
when the second target carriage is at the position of the head and tail of the train at the final carriage sequencing position, the couplers of the second target carriage connected with the rest carriages are used as second target couplers;
and generating a second target coupler list according to the second target couplers determined by all the second target carriages.
6. The method for automatically picking and hanging couplers of a train according to claim 5, wherein the step of sequentially generating the full-open control signals of the second target couplers according to the second target coupler list, so that after all the first target couplers receive the corresponding full-open control signals, the second target couplers are subjected to state detection, specifically:
And sequentially generating full-open control signals corresponding to the second target couplers according to the second target coupler list, so that after one full-open control signal is generated, the full-open control signals are sent to the corresponding second target couplers, the states of the second target couplers are monitored through a coupler state detection encoder, and when the second target couplers are in an unlocking state, the generation of the full-open control signals is carried out on the next second target coupler in the second target coupler list until all the second target couplers finish the generation and state detection of the full-open control signals.
7. The method for automatically picking and hanging couplers of a train according to claim 6, wherein after all the second target couplers are in a fully opened state, each trailer to be picked is controlled to move, and after the train carriage and the preset carriage scheduling plan are checked, all the coupler locking signals are generated, so that the automatic picking and hanging of the couplers of the train is completed, specifically:
after all the second target couplers are in a fully-opened state, positioning the position of the carriage to be picked by reading the RFID chip of the carriage to be picked;
generating a corresponding control scheduling plan of the carriage to be picked up based on the position of the carriage to be picked up through a train terminal command system;
Performing movement control on each trailer carriage to be picked according to the control scheduling plan so as to enable each trailer carriage to be picked to move to the connection position corresponding to the train carriage, and positioning the position of the trailer carriage to be picked in real time through an RFID chip of the trailer carriage to be picked;
when the position of the trailer carriage to be picked is positioned in real time and is the same as the position of each carriage in the preset carriage scheduling plan, generating an actual carriage sequence after the carriage is currently picked, and carrying out consistency check on the actual carriage sequence and the final carriage sequence;
after the consistency check is passed, corresponding locking signals of all the couplers are generated, and state detection is carried out on all the couplers, so that when all the couplers are in a locking state, automatic uncoupling of the couplers of the train is completed.
8. An apparatus for automatically unhooking a coupler of a train, comprising: the system comprises an initialization module, a request module, a first target coupler module, a second target coupler module and a coupler locking module;
the initialization module is used for carrying out state detection on the couplers of all carriages of the train and acquiring the distance between the carriages when all the couplers are in a locking state;
the request module is used for acquiring the compartment numbers of the train when the intervals of all the compartments are in a preset interval range, determining the trailer compartment to be picked and the number thereof according to a preset compartment scheduling plan of the train, and generating a hook picking request and a hook picking request; the preset carriage dispatching plan comprises carriage numbers corresponding to the carriages after the carriages are picked up and placed in the train, and the number of the carriages to be picked up is at least one;
The first target coupler module is used for determining a first target carriage from the to-be-picked carriage according to the coupler picking request and generating a first target coupler list corresponding to the first target carriage, so that unlocking control signals of the first target couplers are sequentially generated according to the first target coupler list, and after all the first target couplers receive the unlocking control signals corresponding to the first target couplers, state detection is carried out on the first target couplers; the first target carriage list comprises a plurality of first target carriages, and the first target car coupler list comprises a front first target car coupler and a rear first target car coupler to be unhooked, which correspond to each first target carriage;
the second target coupler module is configured to determine a second target car from the to-be-picked cars according to the trailer hook request when all the first target couplers are in an unlocking state, and generate a corresponding second target coupler list, so that a full-open control signal of the second target coupler is sequentially generated according to the second target coupler list, so that after all the first target couplers receive the corresponding full-open control signals, state detection is performed on the second target couplers; the second target carriage list comprises a plurality of second target carriages, and the second target car coupler list comprises one or two second target car couplers to be unhooked corresponding to each second target carriage;
And the car coupler locking module is used for controlling each trailer carriage to be picked to move after all the second target car couplers are in a fully-opened state, and generating all car coupler locking signals after checking the train carriage and the preset carriage scheduling plan, so that the automatic picking and hanging of the train car couplers are completed.
9. A terminal device comprising a processor, a memory and a computer program stored in the memory and configured to be executed by the processor, the processor implementing a method of automatically decoupling a train coupler according to any one of claims 1 to 7 when the computer program is executed.
10. A computer readable storage medium, characterized in that the computer readable storage medium comprises a stored computer program, wherein the computer program, when run, controls a device in which the computer readable storage medium is located to perform a method of automatically decoupling a train coupler according to any one of claims 1 to 7.
CN202310526816.7A 2023-05-09 2023-05-09 Method, device, equipment and storage medium for automatically unhooking train coupler Active CN116495033B (en)

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