Disclosure of Invention
Aiming at the defects in the prior art, the invention aims to provide a rail train driving control system for improving the rail traffic safety.
The above object of the present invention is achieved by the following technical solutions:
a rail train driving control system comprises a head-up display, an operation device with a direction code and an operation auxiliary information subsystem linked with the operation device, wherein the operation auxiliary information subsystem comprises a train state information display module and an operation auxiliary information display module,
the train state information display module is used for displaying the train state data in the driving process on the head-up display,
the operation auxiliary information display module is used for displaying various pieces of driving device information which need to be changed in the driving process on the head-up display,
the operation device encodes the front direction, the rear direction, the left direction and the right direction, and the information of each driving device is changed on the operation auxiliary information display module by controlling the operation device.
By adopting the technical scheme, on the display interface of the train state data, the information of each driving device and the flat-screen display, a driver does not need to look down to observe each information, when the information of the driving device needs to be changed, the adjustment can be realized only through the operation device, and the driver does not need to look for each driving device through head lowering because the operation device only codes the front direction, the rear direction, the left direction and the right direction, so that the reliability and the safety of the operation of the rail train are greatly improved.
The present invention in a preferred example may be further configured to: the driving device information displayed by the operation auxiliary information display module is arranged in a mode that three rectangles are vertically connected, the driving device information is horizontally arranged, the upper rectangle and the lower rectangle represent function options of the device, and the central rectangle represents a normal state when the operation device does not perform function selection.
By adopting the technical scheme, each item of driving device information is only set to be in a form that three rectangles are vertically connected, so that when the driver needs to switch the state of the current driving device information, the driver can complete the operation only by moving up and down, and the operation is simple. When the information of each driving device needs to be switched, the driver only needs to move left and right for switching, and the driver can complete corresponding operation without lowering head.
The present invention in a preferred example may be further configured to: the operating device is a self-resetting device and automatically restores to an initial position under the action of no external force.
By adopting the technical scheme, the operating device is set to be a self-reset device, so that the operating device can be conveniently switched to various driving device information left and right.
The present invention in a preferred example may be further configured to: the train state information display module comprises a high-speed state display unit and a passing split-phase state display unit, and the train state data displayed by the high-speed state display unit comprises: target speed, real-time speed, time, gradient, driver controller state;
the train state data displayed by the passing split-phase display unit comprises: target speed, real-time speed, time, pantograph lifting vehicle number, driver controller state, network voltage, network flow, master controller identification and pantograph identification.
By adopting the technical scheme, the high-speed state display unit and the passing split-phase state display unit respectively display the key information required by different states, so that the cognitive fatigue of a driver caused by too much data can be reduced, and the reliability of the driver control is improved.
The present invention in a preferred example may be further configured to: the driving control system also comprises an accident prediction and judgment module and an accident display module,
the accident prediction and judgment module is used for receiving a plurality of accident factors, judging the accident factors and sending the accident factors to the accident information display module;
and the accident display module is used for receiving the information of the accident information display module and displaying the information on the head-up display.
By adopting the technical scheme, the accident prediction and judgment module receives the accident factor, judges the accident according to the accident factor and displays the accident information on the head-up display, and the driver makes corresponding judgment according to the accident information, so that the accident is avoided.
The present invention in a preferred example may be further configured to: the accident prediction and judgment module comprises an accident information storage unit, two accident prediction units, an accident judgment unit and an accident condition emergency processing unit, wherein the two accident prediction units respectively correspond to a weather accident factor and an environment brightness degree accident factor,
the accident information storage unit is used for storing a plurality of accident factors in real time, screening historical data and selecting health data;
the accident prediction unit selects corresponding accident factors and independent variables related to the accident factors, establishes a mathematical model of each accident factor, and inputs current train operation parameters into the current mathematical model so as to obtain accident coefficients under the current condition;
the accident judgment unit receives the accident coefficients obtained by the accident prediction unit, adds the accident coefficients according to the set weight ratio, and then adds the deviation correction parameters to obtain the accident grade;
the accident situation emergency processing unit is used for storing emergency processing schemes corresponding to various accident grades.
By adopting the technical scheme, the accident information storage unit not only stores historical data and stores the latest data in real time, so that the obtained data has stronger timeliness, the accident prediction unit establishes a mathematical model according to accident factors stored in the accident information storage unit and inputs the current data into the data model so as to predict accident grades, each accident prediction unit corresponds to different factors which can influence accidents, then the accident judgment unit comprehensively judges to obtain corresponding accident grades, and a driver adopts a corresponding scheme in advance so as to reduce the accident rate.
The present invention in a preferred example may be further configured to: the accident display module is used for displaying the current accident grade and the emergency treatment scheme on the train head-up display.
Through adopting above-mentioned technical scheme, the driver proposes to make emergency treatment according to the result that shows, strengthens the security.
The present invention in a preferred example may be further configured to: the weather accident factors comprise precipitation, air temperature, wind speed and freezing, and each accident factor is fitted by adopting a method of minimizing solution by scientific computer software.
By adopting the technical scheme, each accident factor is fitted by a scientific computer software minimum solving method to obtain a corresponding mathematical model, so that the accident coefficient under the current condition can be conveniently obtained through the mathematical model.
The present invention in a preferred example may be further configured to: and the environmental light and shade degree accident factor adopts a unitary quadratic fit, and the fitting basis is a least square method.
By adopting the technical scheme, the influence of light and shade on train operation under the current condition is obtained by fitting the accident factor of the ambient light and shade degree.
The present invention in a preferred example may be further configured to: the accident level comprises five levels of normal, warning, early warning, alarming and ATP automatic protection.
By adopting the technical scheme, different early warnings are made according to different conditions, and a driver can make corresponding treatment.
In summary, the invention includes at least one of the following beneficial technical effects:
1. the train state data, the information of each driving device and the display interface of the flat-screen display are displayed, so that a driver does not need to look down at each piece of information, and when the information of the driving device needs to be changed, the adjustment can be realized only by the operation device;
2. because the operation device only encodes the front direction, the rear direction, the left direction and the right direction, a driver does not need to look for each driving device by lowering the head, and the reliability and the safety of the operation of the rail train are greatly improved;
3. the accident prediction and judgment module receives the accident factor, judges the accident according to the accident factor and displays the accident information on the head-up display, and a driver makes corresponding judgment according to the accident information so as to avoid the accident.
Detailed Description
The present invention will be described in further detail with reference to the accompanying drawings. In the present embodiment, only a high-speed train is described, but the present system is not limited to a high-speed train, and may be used for rail transportation equipment such as subways and trains.
Example (b): referring to fig. 1, the invention discloses a rail train driving control system, which comprises a head-up display, an operating device with a direction code and an operation auxiliary information subsystem linked with the operating device.
The operation device only encodes the front direction, the rear direction, the left direction and the right direction, the operation adopts the rocking bars which can only carry out the front direction, the rear direction, the left direction and the right direction, the operation device is a self-resetting device, and the operation device automatically restores to the initial position under the action of no external force.
The operation auxiliary information subsystem comprises a train state information display module and an operation auxiliary information display module. The train state information display module is used for displaying train state data in the driving process on the head-up display, the train state information display module comprises a high-speed state display unit and a passing split-phase state display unit, the train state information display module adopts a dynamic display mode, and an automatic switching mode is adopted between the high-speed state display unit and the passing split-phase state display unit.
When the train is in a high-speed state, the train state data displayed on the display interface of the head-up display by the high-speed state display unit comprises: target speed, real-time speed, time, grade, driver status,
when the train enters the passing neutral section, the train state data displayed by the passing neutral section display unit comprises: target speed, real-time speed, time, pantograph lifting vehicle number, driver controller state, network voltage, network flow, master controller identification and pantograph identification.
When the train speed reaches 200 km/h or more, the system automatically switches the interface of the head-up display to a high-speed running information display interface and dynamically displays operation information according to different device operation requirements. When the system detects the over-phase separation signal, the head-up display is switched to an over-phase information display interface, and a driver performs over-phase separation operation by combining the rocker with operation information in the head-up display; and when the system detects the over-phase separation finishing signal, the system is switched to the high-speed running information display interface again, so that a driver can operate other driving devices through the rocker in combination with the operation information.
Referring to fig. 2 to 4, the driving device information displayed by the auxiliary information display module is arranged in a form in which three rectangles are vertically connected, the driving device information is horizontally arranged, the upper and lower rectangles represent function options of the device, and the central rectangle position represents a normal state when the operation device does not perform function selection. The following table is a sample table of various pieces of driving device information.
The upper and lower rectangles represent the functional options of the device, and the position of the central rectangle "0" represents the normal state when the device is not selected for function.
From the above table, it can be known that the switching and state change among the driving devices can be realized only by moving the rocker in the front, back, left and right directions.
Referring to fig. 1, the rail train information display system further includes an accident prediction judgment module and an accident display module.
The accident prediction and judgment module is used for receiving a plurality of accident factors, judging the accident factors and sending the accident factors to the accident information display module, the accident prediction and judgment module comprises an accident information storage unit, two accident prediction units, an accident judgment unit and an accident condition emergency processing unit, the two accident prediction units respectively correspond to a weather accident factor and an environment brightness degree accident factor,
the accident information storage unit is used for storing a plurality of accident factors in real time, screening historical data and selecting health data. The incident factors are received from an external database.
The accident prediction unit selects the corresponding accident factor and the independent variable related to the accident factor, establishes a mathematical model of each accident factor, and inputs the current train operation parameters into the current mathematical model so as to obtain the accident coefficient under the current condition.
The weather accident factors comprise precipitation, air temperature, wind speed and freezing, and each accident factor is fitted by adopting a method of minimizing solution by scientific computer software.
The environmental light and shade degree accident factor adopts a unitary quadratic fit, and the fitting basis is a least square method.
The accident judgment unit receives an accident coefficient R obtained by the accident prediction unitnAnd adding the accident coefficients according to the set weight ratio, and then adding the deviation correction parameter epsilon to obtain the accident grade.
Accident coefficient ratio P with respect to weather accident factor1Percentage of the accident factor P with respect to the ambient light level2The ratio P of the deviation correction parameter epsilon3,P1 +P2+ P3=1。
X=R
1*P
1 +R
2*P
2+ ε P3, where 0
X
1; the accident grade comprises five levels of normal, warning, early warning, alarming and ATP automatic protection, and is 0
X
The accident grade is normal; 0
X
Accident rating of Warning 0
X
The accident grade is early warning; 0
X
The accident grade is alarm; 0
X
And the accident grade is ATO automatic protection.
And the accident condition emergency processing unit is used for storing emergency processing schemes for various accident grades.
The accident display module is used for receiving the information of the accident information display module and displaying the information on the head-up display.
In addition: in this example, the computer software was fitted using software such as Origin or MATBLE.
The embodiments of the present invention are preferred embodiments of the present invention, and the scope of the present invention is not limited by these embodiments, so: all equivalent changes made according to the structure, shape and principle of the invention are covered by the protection scope of the invention.