Error elimination method for indicator light detonator system

Abstract

The application provides a fault elimination method of an indicator detonator system, and belongs to the technical field of intelligent fault elimination, and comprises the following steps: obtaining the unique code of each target detonator in the indicator detonator system, and assigning a display communication component to each unique code, and displaying the components on a pre-defined display interface; receiving an external input instruction based on the pre-defined display interface to control the corresponding target detonator; comparing the control result of the corresponding target detonator with the standard result of the input instruction, and controlling the indicator on the corresponding target detonator to flash at a corresponding frequency to realize detonator fault elimination according to the comparison result, and simultaneously displaying the comparison result on the pre-defined display interface. The method can effectively realize communication control of the detonator and one-to-one corresponding search, can comprehensively eliminate faults from two aspects, and can effectively improve the efficiency of electronic detonator fault elimination.

Description

Technical Field

[0001] This invention relates to the field of intelligent troubleshooting technology, and in particular to a troubleshooting method for an indicator light detonator system. Background Technology

[0002] Currently, industrial wired digital electronic detonators are widely used in my country and worldwide. These detonators are characterized by their digital delay module, steel casing, and activating agent composition, such as... Figure 1 As shown.

[0003] After electronic detonators are installed in underground blast holes, if a particular detonator malfunctions during network setup, it can only be located by referring to the hole positions marked during registration. The hole number of the malfunctioning detonator can be viewed in the detonator's application interface, and the physical detonator can then be located based on this identifier. This method of locating and identifying faulty detonators is inefficient. Furthermore, incorrect marking during registration can prevent the malfunctioning detonator from being found.

[0004] Wireless detonators typically consist of a wireless signal receiver and one or more ignition modules. The method for locating faulty detonators is the same as that for wired digital detonators, resulting in similarly low efficiency. Incorrect registration or identification can prevent the faulty detonator from being detected.

[0005] Therefore, this invention proposes a troubleshooting method for indicator light detonator systems. Summary of the Invention

[0006] This invention provides a troubleshooting method for an indicator light detonator system. The method is used to uniquely number the target detonator and combine it with a display and communication component to facilitate effective communication control and one-to-one matching of the detonator. Furthermore, by comparing the control result with the standard result, the indicator light set on the detonator flashes and the interface displays a reminder, which facilitates comprehensive troubleshooting reminders from two aspects and effectively improves the efficiency of troubleshooting electronic detonators.

[0007] This invention provides a troubleshooting method for an indicator light detonator system, comprising:

[0008] Step 1: Obtain the unique code of each target detonator in the indicator detonator system, assign a display communication component to each unique code, and display the component in the predefined display interface;

[0009] Step 2: Receive external input commands based on the predefined display interface to control the corresponding target detonator;

[0010] Step 3: Compare the control result of the corresponding target detonator with the standard result of the input command. Based on the comparison result, control the indicator light on the corresponding target detonator to flash at the corresponding frequency to realize detonator error correction. At the same time, synchronize the comparison result to the predefined display interface for display.

[0011] Preferably, each target detonator is provided with an indicator light, and each indicator light is communicatively connected to the detonator of the corresponding target detonator.

[0012] Preferably, the indicator light used for troubleshooting has an abnormal troubleshooting mode and / or a normal display mode for non-troubleshooting;

[0013] When an indicator light with an anomaly troubleshooting mode enters the anomaly troubleshooting mode, the corresponding indicator light has two display states, including: off state and on state.

[0014] Preferably, the process of receiving external input commands based on the predefined display interface to control the corresponding target detonator further includes:

[0015] When the external input command input based on the predefined display interface is the first broadcast command, the number of broadcasts of the first broadcast command is set, and the broadcast is sent to the indicator detonator system. The indicator light that successfully receives the broadcast is controlled to switch from the normal display mode to the abnormal inspection mode. If the indicator light has only one abnormal inspection mode, it will directly enter the off state of the abnormal inspection mode after successfully receiving the broadcast.

[0016] When the external input command input based on the predefined display interface is a single command, determine whether the feedback information of the indicator light corresponding to the single command is captured;

[0017] If detected, the corresponding indicator light will be switched to the abnormal troubleshooting mode and illuminated.

[0018] Otherwise, the non-communication result of the corresponding indicator light will be displayed on the predefined display interface;

[0019] This allows for the serial or individual sending of corresponding single commands to multiple indicator lights;

[0020] When exiting the predefined display interface, a second broadcast command is sent to the indicator detonator system, causing all indicator lights that successfully receive the second broadcast command to exit the anomaly troubleshooting mode.

[0021] Preferably, the control result of the corresponding target detonator is compared with the standard result of the input command, including:

[0022] Based on preset result analysis indicators, the manipulation results are analyzed to construct a first set A1 = {dj, j = 1, 2, 3, ..., n1}. At the same time, the standard results are analyzed to construct a second set A2 = {bj, j = 1, 2, 3, ..., n1}, where n1 represents the number of preset result analysis indicators; dj represents the manipulation result value of the j-th indicator; and bj represents the standard result value of the j-th indicator.

[0023] Based on the control log, obtain the control array for each preset result analysis indicator and construct the control time set S01 = {[t0 j ,t1 j ],j=1,2,3,...,n1}, where t0 j t1 represents the actual execution time of the control program corresponding to the j-th indicator. j This represents the time of occurrence of the control result value corresponding to the j-th indicator. Simultaneously, a standard time set S0b = {[T0...} is constructed based on the time array of each preset result analysis indicator. j T1 j ],j=1,2,3,...,n1}, where T0 j T1 represents the standard execution time of the control program corresponding to the j-th indicator. j This indicates the time when the standard result value corresponding to the j-th indicator appears;

[0024] A first comparison is made between the first set and the second set, and a second comparison is made between the manipulated time set and the standard time set.

[0025] Based on the first and second comparison results, the comparison results are obtained.

[0026] Preferably, based on the comparison results, the indicator light on the corresponding target detonator is controlled to flash at a corresponding frequency to achieve detonator error correction, including:

[0027] Obtain the first comparison result {dj-bj,j=1,2,3,...,n1}, and simultaneously obtain the second comparison result {[t0 j -T0 j ,t1 j -T1 j ,t1 j -t0 j -(T1 j -T0 j )],j=1,2,3,...,n1};

[0028] For all t0 in the second comparison result j -T0 j Perform the first size sort to obtain the first valid sequence, and then perform the first size sort on all t1. j -T1 j Perform a second size sort to obtain the second effective sequence and for all t1 j -t0 j -(T1 j -T0 j The third effective sequence is obtained by performing a third-order sort.

[0029] The fourth effective sequence is obtained by sorting all elements in the first comparison result by a fourth size order.

[0030] Extract the first number that is greater than or equal to the corresponding first preset value and the second number that is less than the corresponding second preset value from each valid sequence;

[0031] Based on the first and second numbers, calculate the first anomaly coefficient for each valid sequence and obtain the anomaly level of the corresponding target detonator;

[0032] The display color of the corresponding indicator light is determined according to the grade-color mapping table;

[0033] For each valid sequence, calculate the second abnormality coefficient for each abnormal indicator that is not within the range of the corresponding first and second preset values.

[0034] Based on all the second anomaly coefficients, determine the flashing frequency of the corresponding indicator light to provide a flashing reminder.

[0035] Preferably, the comparison results are synchronized to the predefined display interface for display, including:

[0036] Extract the detonators to be displayed from the comparison results to determine the default arrangement of all detonators to be displayed based on the predefined display interface;

[0037] Based on the display color and flashing frequency of each detonator to be displayed, determine whether there is a consistent display label in the corresponding display label set;

[0038] If present, attach the matching display label to the corresponding detonator to be displayed;

[0039] If none exist, find the first label that is closest to the display color and the second label that is closest to the flashing frequency, and eliminate the contradiction between the first label and the second label. Then attach the eliminated label to the corresponding detonator to be displayed.

[0040] The horizontal display unit surface is arranged and displayed according to the horizontal display unit surface where the detonator to be displayed is located, the number of detonators to be displayed involved in the corresponding horizontal display unit surface, and the last attached label of each detonator to be displayed.

[0041] Preferably, based on all the second anomaly coefficients, the flashing frequency of the corresponding indicator light is determined for flashing reminder, including:

[0042] Based on the index-coefficient-frequency mapping table, obtain the initial frequency of each abnormal index;

[0043] Select the common frequency and the maximum frequency from all initial frequencies, and calculate the scintillation time T based on the common frequency.gp And the flicker time T based on the maximum frequency maxs ;

[0044]

[0045]

[0046] Where Tc represents the set flashing duration; N gp N represents the number of abnormal indicators at the common frequency; maxs Indicates the number of abnormal indicators at the highest frequency; X ave σ1 represents the average frequency of all acquired initial frequencies. 2 X represents the frequency variance of all acquired initial frequencies; j2 X represents the initial frequency of the j2th abnormal index at the common frequency; maxs Indicates the maximum frequency;

[0047] Based on the flickering time T gp And the blinking time T maxs Calculate the number of cycles Lc, and perform a cyclic flashing reminder according to the number of cycles;

[0048]

[0049] Here, mod is the modulo function.

[0050] Compared with the prior art, the beneficial effects of this application are as follows:

[0051] By assigning a unique number to each target detonator and combining it with a display and communication component, it is possible to effectively achieve communication control and one-to-one matching of the detonator. Furthermore, by comparing the control results with the standard results, the indicator lights set on the detonator itself flash and the interface displays reminders, which facilitates comprehensive troubleshooting reminders from two aspects and effectively improves the efficiency of troubleshooting electronic detonators.

[0052] Other features and advantages of the invention will be set forth in the following description, and will be apparent in part from the description, or may be learned by practicing the invention. The objects and other advantages of the invention may be realized and obtained by means of the structures particularly pointed out in the written description and the accompanying drawings.

[0053] The technical solution of the present invention will be further described in detail below with reference to the accompanying drawings and embodiments. Attached Figure Description

[0054] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used in conjunction with embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings:

[0055] Figure 1 This is a structural diagram of an industrial wired digital electronic detonator according to an embodiment of the present invention;

[0056] Figure 2 This is a flowchart of a troubleshooting method for an indicator light detonator system according to an embodiment of the present invention;

[0057] Figure 3 This is a display diagram of abnormal items in an embodiment of the present invention;

[0058] Figure 4 This is a structural diagram of the horizontal display unit surface in an embodiment of the present invention. Detailed Implementation

[0059] The preferred embodiments of the present invention will be described below with reference to the accompanying drawings. It should be understood that the preferred embodiments described herein are for illustration and explanation only and are not intended to limit the present invention.

[0060] This invention provides a troubleshooting method for an indicator light detonator system, such as... Figure 1 As shown, it includes:

[0061] Step 1: Obtain the unique code of each target detonator in the indicator detonator system, assign a display communication component to each unique code, and display the component in the predefined display interface;

[0062] Step 2: Receive external input commands based on the predefined display interface to control the corresponding target detonator;

[0063] Step 3: Compare the control result of the corresponding target detonator with the standard result of the input command. Based on the comparison result, control the indicator light on the corresponding target detonator to flash at the corresponding frequency to realize detonator error correction. At the same time, synchronize the comparison result to the predefined display interface for display.

[0064] Preferably, each target detonator is provided with an indicator light, and each indicator light is communicatively connected to the detonator of the corresponding target detonator.

[0065] Preferably, the indicator light used for troubleshooting has an abnormal troubleshooting mode and / or a normal display mode for non-troubleshooting;

[0066] When an indicator light with an anomaly troubleshooting mode enters the anomaly troubleshooting mode, the corresponding indicator light has two display states, including: off state and on state.

[0067] In this embodiment, the specific implementation for the two display states is as follows: For example, after a broadcast, the system enters the off-light state of the anomaly troubleshooting mode, so all indicator lights used for troubleshooting will turn off after the broadcast. Then, for a specified target detonator number, the troubleshooting indicator light for that detonator is set to the on-light mode of the anomaly troubleshooting mode, allowing the currently lit detonator to be easily identified from among all the off-light detonators.

[0068] Preferably, the process of receiving external input commands based on the predefined display interface to control the corresponding target detonator further includes:

[0069] When the external input command input based on the predefined display interface is the first broadcast command, the number of broadcasts of the first broadcast command is set, and the broadcast is sent to the indicator detonator system. The indicator light that successfully receives the broadcast is controlled to switch from the normal display mode to the abnormal inspection mode. If the indicator light has only one abnormal inspection mode, it will directly enter the off state of the abnormal inspection mode after successfully receiving the broadcast.

[0070] When the external input command input based on the predefined display interface is a single command, determine whether the feedback information of the indicator light corresponding to the single command is captured;

[0071] If detected, the corresponding indicator light will be switched to the abnormal troubleshooting mode and illuminated.

[0072] Otherwise, the non-communication result of the corresponding indicator light will be displayed on the predefined display interface;

[0073] This allows for the serial or individual sending of corresponding single commands to multiple indicator lights;

[0074] When exiting the predefined display interface, a second broadcast command is sent to the indicator detonator system, causing all indicator lights that successfully receive the second broadcast command to exit the anomaly troubleshooting mode.

[0075] In this embodiment, the abnormal investigation mode is exited by sending a second broadcast command, which effectively reduces hardware costs and uses a single indicator light to switch between multiple different modes.

[0076] In this embodiment, the indicator detonator system includes: one or more indicator lights mounted on the electronic detonator, control software that communicates with the electronic detonator, and a predefined display interface displayed based on the control software.

[0077] In this embodiment, the predefined display interface is based on the settings pre-defined by the control software.

[0078] In this embodiment, the display communication component includes an electronic detonator icon display and an electronic detonator warning display, mainly for displaying the electronic detonator icon and various abnormal information based on the control software.

[0079] In this embodiment, the external input command can be a check command for a specific electronic detonator to determine whether the detonator can function properly. For example, the input command could be to retrieve the detonator ID. If an anomaly is found, the anomaly result will be displayed on the corresponding predefined display interface, prompting the user to check the anomaly item. Figure 3 As shown.

[0080] In this embodiment, for example, if it is determined from the comparison results that the corresponding detonator is not abnormal, then the indicator light on the detonator is controlled to be in a constant green state.

[0081] If an anomaly is detected, the device will flash at the corresponding frequency.

[0082] In this embodiment, clicking the highlight button in the abnormality viewing item of the predefined display interface will bring all detonators with abnormal displays into the abnormal display state:

[0083] First, send command A, then send command B one by one to each of the detonators in the list.

[0084] This operation helps to quickly identify all abnormal detonators. It allows for troubleshooting of a single detonator or multiple detonators simultaneously.

[0085] In this embodiment, the control result refers to the actual feedback made by the detonator based on the command after the detonator is controlled by the command, and then compared with the standard feedback (standard result) to obtain the comparison result. The comparison process corresponding to different external input commands involves indicators obtained based on the command-indicator mapping table. This table contains different external input commands and various indicators that match the commands, which facilitates subsequent comparison and analysis. For example, the external input command is command 1, and the indicators that match command 1 include: indicator 1, indicator 2, and indicator 3.

[0086] In this embodiment, the flicker frequencies corresponding to different comparison results will also be different.

[0087] In this embodiment, the unique code is determined based on the blasting target, blasting location, and blasting importance value of the electronic detonator, and has unique representativeness.

[0088] The beneficial effects of the above technical solution are: the target detonator is uniquely numbered and combined with the display and communication components to facilitate effective communication control and one-to-one matching of the detonator; furthermore, by comparing the control results with the standard results, the indicator lights set on the detonator itself are flashed and the interface is displayed as a reminder, which facilitates comprehensive troubleshooting reminders from two aspects and effectively improves the efficiency of troubleshooting electronic detonators.

[0089] This invention provides a troubleshooting method for an indicator light detonator system, which obtains the unique code of each target detonator in the indicator light detonator system, including:

[0090] The blasting target and blasting location corresponding to each target detonator in the indicator detonator system are respectively locked;

[0091] A unique code is assigned to the corresponding target detonator based on the blasting object and blasting location.

[0092] In this embodiment, the blasting object refers to the object to be blasted by the electronic detonator, such as blasting rocks, and the blasting location is, for example, point A in the rock.

[0093] In this embodiment, the unique code is: blasting target + blasting location.

[0094] The beneficial effects of the above technical solution are: by locking the blasting target and blasting location, it is easy to make a unique code, which facilitates the subsequent special investigation of detonators and indirectly improves the investigation efficiency.

[0095] This invention provides a troubleshooting method for an indicator light detonator system, which assigns a display communication component to each unique code and displays the component on a predefined display interface, including:

[0096] The target detonators are sorted vertically based on the same importance level according to the important symbols corresponding to the unique codes.

[0097] The target detonator is extracted from the coded important symbols encompassed by the same importance level, corresponding to the symbol with the highest importance value. The calculation method for the highest importance value is as follows:

[0098]

[0099] Where Y1 represents the corresponding maximum importance value; max represents the maximum value sign; bwi represents the complexity of the blasting location corresponding to the i-th target detonator; bdi represents the importance of the blasting object corresponding to the i-th target detonator; δ i This represents the blasting hazard coefficient corresponding to the blasting type of the i-th target detonator; n represents the number of target detonators included in the indicator detonator system;

[0100] Based on the maximum importance value in the same importance level, the predefined maximum value, and combined with the length and width of the allocated horizontal display unit surface, a display tag set is assigned to each target detonator in the corresponding horizontal display unit surface, wherein the display tag set includes the display size under different display levels;

[0101] The combination arrangement of the same horizontal display unit surface is determined and stored according to the display label set. The default display of the predefined display interface is that the electronic detonators involved in the same horizontal display unit surface are displayed equally.

[0102] The display communication components include an electronic detonator icon display and an electronic detonator warning display.

[0103] In this embodiment, the encoded important symbols correspond to the blasting importance values. By classifying the blasting importance values ​​to determine the same importance level, several different importance levels can be obtained. Each importance level contains different electronic detonators. For example, electronic detonators 1 and 3 belong to importance level a1, while electronic detonators 2, 4, and 5 belong to importance level a2. Important level a1 is greater than important level a2. Therefore, the horizontal display unit surface of importance level a1 is above the horizontal display unit surface of importance level a2. Figure 4 As shown.

[0104] In this embodiment, the maximum importance value refers to the largest value extracted from all blasting importance values ​​of the corresponding level.

[0105] In this embodiment, assigning a display tag set involves statistically analyzing the possible anomalies of the corresponding target detonator. During the statistical analysis, it is necessary to determine the number of possible anomalies. Generally, the anomaly determination is based on the anomaly type, and each anomaly type may have multiple detailed sub-anomalies. For example, for electronic detonator voltage anomalies, there are general voltage anomalies, severe voltage anomalies, etc. Therefore, the display tag set is set according to the maximum importance value to highlight as many possible situations as possible. However, some well-known detonator anomalies can be excluded from the tag display, firstly to save resources, and secondly to improve the efficiency of anomaly display while saving resources.

[0106] In this embodiment, the length of each horizontal display surface is the same, but the width may vary and is determined according to the importance level. The higher the importance level, the wider the corresponding surface width.

[0107] In this embodiment, the combined arrangement is to combine and display the possible anomalies of different target detonators involved in the same horizontal display unit surface, and the purpose of storage is to facilitate subsequent anomaly matching.

[0108] In this embodiment, equal display means displaying each electronic detonator of the same size according to the length of the same horizontal display unit surface / the number of electronic detonators involved.

[0109] The beneficial effects of the above technical solution are: by sorting the target detonators according to their importance level, it is convenient to observe the abnormality of electronic detonators intuitively. Furthermore, by setting a display tag set for electronic detonators under each importance level, resources can be saved while improving the efficiency of abnormality matching, thus facilitating subsequent investigation.

[0110] This invention provides a troubleshooting method for an indicator light detonator system, which assigns a set of display tags to each target detonator in the corresponding horizontal display unit surface, including:

[0111] Determine the number of labels to set;

[0112]

[0113] Wherein, N1 represents the number of tags set for each target detonator in the horizontal display unit; Yy represents the corresponding predefined maximum value; N0 represents the number of predefined tags matching the corresponding predefined maximum value; min represents the minimum value symbol; N2 represents the number of target detonators involved in the same importance level; Cm represents the length of the corresponding horizontal display unit; Km represents the width of the corresponding horizontal display unit; G2(Y1,Yy) represents the unit length adjustment coefficient based on Y1 and Yy; G1(Y1,Yy) represents the unit width adjustment coefficient based on Y1 and Yy; ceiling represents the rounding up symbol;

[0114] Based on the level-quantity-display mapping table, obtain the alarm display information that matches the importance level and the number of labels set, and represent each alarm display information with a label to construct a display label set.

[0115] In this embodiment, and The integer range is (0.6, 1).

[0116] In this embodiment, the level-quantity-display mapping table includes different importance levels, the number of labels set based on the importance level, and the number of alarm displays that match the quantity. The matched alarm displays are information that experts have pre-determined to save resources while ensuring alarm efficiency.

[0117] In this embodiment, the label representation is obtained by matching each alarm display status with the corresponding label to obtain the displayed alarm with the label, that is, all displayed alarms with the label are combined to obtain the display label set.

[0118] The beneficial effects of the above technical solution are: by setting the number of tags and obtaining the alarm display information from the mapping table, the tag set can be constructed.

[0119] This invention provides a troubleshooting method for an indicator light detonator system, which compares the control result of the corresponding target detonator with the standard result of the input command, including:

[0120] Based on preset result analysis indicators, the manipulation results are analyzed to construct a first set A1 = {dj, j = 1, 2, 3, ..., n1}. At the same time, the standard results are analyzed to construct a second set A2 = {bj, j = 1, 2, 3, ..., n1}, where n1 represents the number of preset result analysis indicators; dj represents the manipulation result value of the j-th indicator; and bj represents the standard result value of the j-th indicator.

[0121] Based on the control log, obtain the control array for each preset result analysis indicator and construct the control time set S01 = {[t0 j ,t1 j ],j=1,2,3,...,n1}, where t0 j t1 represents the actual execution time of the control program corresponding to the j-th indicator. j This represents the time of occurrence of the control result value corresponding to the j-th indicator. Simultaneously, a standard time set S0b = {[T0...} is constructed based on the time array of each preset result analysis indicator. j T1 j ],j=1,2,3,...,n1}, where T0 j T1 represents the standard execution time of the control program corresponding to the j-th indicator. j This indicates the time when the standard result value corresponding to the j-th indicator appears;

[0122] A first comparison is made between the first set and the second set, and a second comparison is made between the manipulated time set and the standard time set.

[0123] Based on the first and second comparison results, the comparison results are obtained.

[0124] In this embodiment, the comparison between dj and bj is the first comparison.

[0125] In this embodiment, t0 j With T0 j ,t1 j With T1 j ,t1 j -t0 j With T1 j -T0 j The comparison is the second comparison.

[0126] In this embodiment, the operation log captures the execution process of the electronic detonator according to the instruction after the display interface receives the instruction. The capture is based on existing capture tools, so the actual execution time and the actual occurrence time can be accurately obtained.

[0127] In this embodiment, the standard execution time and the standard emergence time are pre-planned by experts and can be directly obtained.

[0128] The beneficial effects of the above technical solution are: by comparing the results of indicators and time, a comprehensive comparison result can be obtained, ensuring the diversity of the results obtained, and providing a data foundation for subsequent detonator troubleshooting.

[0129] This invention provides a method for troubleshooting an indicator light detonator system. Based on a comparison result, the method controls the indicator light on the target detonator to flash at a corresponding frequency to achieve detonator troubleshooting. The method includes:

[0130] Obtain the first comparison result {dj-bj,j=1,2,3,...,n1}, and simultaneously obtain the second comparison result {[t0 j -T0 j ,t1 j -T1 j ,t1 j -t0 j -(T1 j -T0 j )],j=1,2,3,...,n1};

[0131] For all t0 in the second comparison result j -T0 j Perform the first size sort to obtain the first valid sequence, and then perform the first size sort on all t1. j -T1 j Perform a second size sort to obtain the second effective sequence and for all t1 j -t0 j -(T1 j -T0 j The third effective sequence is obtained by performing a third-order sort.

[0132] The fourth effective sequence is obtained by sorting all elements in the first comparison result by a fourth size order.

[0133] Extract the first number that is greater than or equal to the corresponding first preset value and the second number that is less than the corresponding second preset value from each valid sequence;

[0134] Based on the first and second numbers, calculate the first anomaly coefficient for each valid sequence and obtain the anomaly level of the corresponding target detonator;

[0135] The display color of the corresponding indicator light is determined according to the grade-color mapping table;

[0136] For each valid sequence, calculate the second abnormality coefficient for each abnormal indicator that is not within the range of the corresponding first and second preset values.

[0137] Based on all the second anomaly coefficients, determine the flashing frequency of the corresponding indicator light to provide a flashing reminder.

[0138] This embodiment also includes the following control over the indicator lights:

[0139] 1. Broadcast commands, such as command A, cause all selections to enter the abnormal status indicator display state and turn off the indicator light;

[0140] 2. Single command, such as command B, specifying the serial number, to make the abnormal status light of the specified detonator remain on.

[0141] 3. Broadcast commands, such as command C, will cause all selections to exit the abnormal status display state as abnormal status indicator lights and display the original state.

[0142] The indicator light is displaying an abnormal status because there is an abnormality in the electronic detonator.

[0143] In this embodiment, after sorting the elements by size, the corresponding valid sequence can be obtained, that is, the difference in the valid sequence is sorted by size.

[0144] In this embodiment, the preset ranges for comparing different elements are all pre-set, and the preset range is (second preset value, first preset value).

[0145] In this embodiment, the first number and the second number can be directly determined after comparing their sizes.

[0146] In this embodiment, the first anomaly coefficient = (first number + second number) / n1.

[0147] In this embodiment, the anomaly level is determined based on the sum of all first anomaly coefficients × sequence weights and the value-level mapping table corresponding to the sum value. The mapping table contains different anomaly values ​​and anomaly levels that match the values.

[0148] In this embodiment, the level-color mapping table includes different anomaly levels and the display color that matches the anomaly level.

[0149] In this embodiment, Among them, YX j2B1 represents the second anomaly coefficient of the j2th anomaly index; j3 This indicates that the preset range corresponding to the j2th anomaly index determined under the j3rd valid sequence is within the range of Δ1. j3 The closest boundary value; Δ1 j3 z1 represents the difference between the j2th anomaly index determined under the j3rd valid sequence; j3 The standardized coefficient of the difference between the j2th outlier determined from the j3rd valid sequence; r1 j3 This represents the occurrence coefficient of the j2th abnormal indicator determined under the j3rd valid sequence. The value is 1 when the corresponding indicator appears under the j3rd valid sequence and is abnormal, and 0 otherwise.

[0150] In this embodiment, if an anomalous situation occurs even once in the four valid sequences, the corresponding index is considered an anomalous index.

[0151] The beneficial effects of the above technical solution are as follows: by sorting the four cases into a valid sequence, and then calculating the first anomaly coefficient by comparing preset values, the anomaly level is effectively determined for color matching. Furthermore, by analyzing the anomaly indicators present in the valid sequence, the second anomaly coefficient is calculated, and a flashing frequency is assigned to ensure the effective display of the indicator light, facilitate reminders, and ensure timely handling of anomalies.

[0152] This invention provides a troubleshooting method for an indicator light detonator system, which synchronizes the comparison results to a predefined display interface for display, including:

[0153] Extract the detonators to be displayed from the comparison results to determine the default arrangement of all detonators to be displayed based on the predefined display interface;

[0154] Based on the display color and flashing frequency of each detonator to be displayed, determine whether there is a consistent display label in the corresponding display label set;

[0155] If present, attach the matching display label to the corresponding detonator to be displayed;

[0156] If none exist, find the first label that is closest to the display color and the second label that is closest to the flashing frequency, and eliminate the contradiction between the first label and the second label. Then attach the eliminated label to the corresponding detonator to be displayed.

[0157] The horizontal display unit surface is arranged and displayed according to the horizontal display unit surface where the detonator to be displayed is located, the number of detonators to be displayed involved in the corresponding horizontal display unit surface, and the last attached label of each detonator to be displayed.

[0158] In this embodiment, the detonator to be displayed refers to a detonator with abnormal indicators. When the corresponding detonator does not have abnormal indicators, it is regarded as a normal detonator.

[0159] In this embodiment, the default arrangement refers to the positional arrangement of abnormal detonators and normal detonators on the corresponding horizontal display unit surface, because the comparison results may include the result of one electronic detonator or the result of multiple electronic detonators.

[0160] In this embodiment, conflict resolution of tags refers to finding overlapping definitions between the first tag and the second tag, and retaining the more advanced content among the overlapping definitions. For example, if the first tag has a flashing frequency of 1000 and the second tag has a flashing frequency of 800, then the tag with a flashing frequency of 1000 is retained, the tag with a flashing frequency of 800 is deleted, and the tag with a flashing frequency of 1000 is executed.

[0161] In this embodiment, the arrangement display refers to prominently displaying the final state of different electronic detonators involved in the corresponding horizontal display single side. This can be a magnified display of the detonator to be displayed, or a grayscale default display of the normal state detonator, etc.

[0162] The beneficial effects of the above technical solution are: by determining the matching situation between the detonator to be displayed and the set of display labels, the label addition situation under the conditions of consistency and inconsistency can be classified and discussed, so as to achieve a reasonable arrangement of the unit surface and facilitate intuitive viewing.

[0163] This invention provides a troubleshooting method for an indicator light detonator system, which determines the flashing frequency of the corresponding indicator light based on all second anomaly coefficients to provide a flashing reminder, including:

[0164] Based on the index-coefficient-frequency mapping table, obtain the initial frequency of each abnormal index;

[0165] Select the common frequency and the maximum frequency from all initial frequencies, and calculate the scintillation time T based on the common frequency. gp And the flicker time T based on the maximum frequency maxs ;

[0166]

[0167]

[0168] Where Tc represents the set flashing duration; N gp N represents the number of abnormal indicators at the common frequency; maxs Indicates the number of abnormal indicators at the highest frequency; X ave σ1 represents the average frequency of all acquired initial frequencies. 2 X represents the frequency variance of all acquired initial frequencies;j2 X represents the initial frequency of the j2th abnormal index at the common frequency; maxs Indicates the maximum frequency;

[0169] Based on the flickering time T gp And the blinking time T maxs Calculate the number of cycles Lc, and perform a cyclic flashing reminder according to the number of cycles;

[0170]

[0171] Here, mod is the modulo function.

[0172] In this embodiment, the index-coefficient-frequency mapping table includes different abnormal indices, as well as second abnormal coefficients and frequencies based on these indices, which facilitates direct matching and acquisition, and the directly acquired result is the initial frequency.

[0173] In this embodiment, the common frequency refers to the average of the frequencies that satisfy a normal distribution probability of 70% among all initial frequencies, and the corresponding quantity statistics are also the number of frequencies involved in satisfying a normal distribution probability of 70%.

[0174] In this embodiment, the maximum frequency is the frequency with the largest value among all initial frequencies.

[0175] The beneficial effects of the above technical solution are: by obtaining the frequency of each indicator from the table and determining the common frequency and maximum frequency to calculate the flicker time, it is easier to ensure the comprehensiveness of the anomaly from these two aspects, mainly to remind the timely handling of the anomaly and to ensure the efficiency of the anomaly handling.

[0176] Obviously, those skilled in the art can make various modifications and variations to this invention without departing from its spirit and scope. Therefore, if these modifications and variations fall within the scope of the claims of this invention and their equivalents, this invention also intends to include these modifications and variations.

Claims

1. A troubleshooting method for an indicator light detonator system, characterized in that, include: Step 1: Obtain the unique code of each target detonator in the indicator detonator system, assign a display communication component to each unique code, and display the component in the predefined display interface; Step 2: Receive external input commands based on the predefined display interface to control the corresponding target detonator; Step 3: Compare the control result of the corresponding target detonator with the standard result of the input command. Based on the comparison result, control the indicator light on the corresponding target detonator to flash at the corresponding frequency to realize detonator error correction. At the same time, synchronize the comparison result to the predefined display interface for display. This includes comparing the control results of the corresponding target detonator with the standard results of the input command, including: The first set is constructed by analyzing the manipulation results based on preset result analysis indicators. Meanwhile, the second set was constructed by analyzing the standard results. Where n1 represents the number of preset result analysis indicators; This represents the value of the manipulation result of the j-th indicator; This represents the standard result value of the j-th indicator; Based on the control logs, obtain the control arrays for each preset result analysis indicator and construct a control time set. ,in, This indicates the actual execution time of the control program corresponding to the j-th indicator. This indicates the time when the value of the control result corresponding to the j-th indicator appears. Simultaneously, a standard time set is constructed based on the time array of each preset result analysis indicator. ,in, This represents the standard execution time of the control program corresponding to the j-th indicator. This indicates the time when the standard result value corresponding to the j-th indicator appears; A first comparison is made between the first set and the second set, and a second comparison is made between the manipulated time set and the standard time set. Based on the first and second comparison results, the comparison results are obtained; Among these methods, controlling the indicator lights on the corresponding target detonator to flash at a specific frequency based on the comparison results enables detonator error correction, including: Obtain the first comparison result At the same time, obtain the second comparison result. ; For all of the second comparison results Perform the first size sort to obtain the first valid sequence, and then perform the first size sort on all... Perform a second size sort to obtain the second effective sequence and for all The third effective sequence is obtained by performing a third-order size sort. The fourth effective sequence is obtained by sorting all elements in the first comparison result by a fourth size order. Extract the first number that is greater than or equal to the corresponding first preset value and the second number that is less than the corresponding second preset value from each valid sequence; Based on the first and second numbers, calculate the first anomaly coefficient for each valid sequence and obtain the anomaly level of the corresponding target detonator; The display color of the corresponding indicator light is determined according to the grade-color mapping table; For each valid sequence, calculate the second abnormality coefficient for each abnormal indicator that is not within the range of the corresponding first and second preset values. Based on all the second anomaly coefficients, determine the flashing frequency of the corresponding indicator light to provide a flashing reminder; Specifically, based on all the second anomaly coefficients, the flashing frequency of the corresponding indicator light is determined for flashing reminders, including: Based on the index-coefficient-frequency mapping table, obtain the initial frequency of each abnormal index; Select the common frequency and the maximum frequency from all initial frequencies, and calculate the scintillation time based on the common frequency. And the flicker time based on the maximum frequency ; ； in, This indicates the set flashing duration; Indicates the number of abnormal indicators at the common frequency; This indicates the number of abnormal indicators at the highest frequency. This represents the average frequency of all acquired initial frequencies; This represents the frequency variance of all acquired initial frequencies; This represents the initial frequency of the j2th abnormal index at the common frequency. Indicates the maximum frequency; Based on the flashing time And blinking time Calculate the number of loops And flash the reminder repeatedly according to the number of cycles; ； Here, mod is the modulo function.

2. The troubleshooting method for the indicator light detonator system according to claim 1, characterized in that, Each target detonator is equipped with an indicator light, and each indicator light is communicatively connected to the detonator of the corresponding target detonator.

3. The troubleshooting method for the indicator light detonator system according to claim 2, characterized in that, The indicator lights used for troubleshooting have an abnormal troubleshooting mode and / or a normal display mode for non-troubleshooting; When an indicator light with an anomaly troubleshooting mode enters the anomaly troubleshooting mode, the corresponding indicator light has two display states, including: off state and on state. The specific operations for the two display states are as follows: After the broadcast is initiated, the lights are turned off in the anomaly troubleshooting mode, and all indicator lights used for troubleshooting are turned off after the broadcast. Next, specify the target detonator number, and put the fault indicator light of the specified detonator into the abnormal troubleshooting mode. From all the detonators that are off, find the one that is lit.

4. The troubleshooting method for the indicator light detonator system according to claim 2, characterized in that, The process of controlling the corresponding target detonator by receiving external input commands based on the predefined display interface also includes: When the external input command input based on the predefined display interface is the first broadcast command, the number of broadcasts of the first broadcast command is set, and the broadcast is sent to the indicator detonator system. The indicator light that successfully receives the broadcast is controlled to switch from the normal display mode to the abnormal inspection mode. If the indicator light has only one abnormal inspection mode, it will directly enter the off state of the abnormal inspection mode after successfully receiving the broadcast. When the external input command input based on the predefined display interface is a single command, determine whether the feedback information of the indicator light corresponding to the single command is captured; If detected, the corresponding indicator light will be switched to the abnormal troubleshooting mode and illuminated. Otherwise, the non-communication result of the corresponding indicator light will be displayed on the predefined display interface; This allows for the serial or individual sending of corresponding single commands to multiple indicator lights; When exiting the predefined display interface, a second broadcast command is sent to the indicator detonator system, causing all indicator lights that successfully receive the second broadcast command to exit the anomaly troubleshooting mode. One indicator light is used to switch between multiple different modes.

5. The troubleshooting method for the indicator light detonator system according to claim 1, characterized in that, The comparison results are synchronized to the predefined display interface for display, including: Extract the detonators to be displayed from the comparison results to determine the default arrangement of all detonators to be displayed based on the predefined display interface; Based on the display color and flashing frequency of each detonator to be displayed, determine whether there is a consistent display label in the corresponding display label set; If present, attach the matching display label to the corresponding detonator to be displayed; If none exist, find the first label that is closest to the display color and the second label that is closest to the flashing frequency, and perform contradiction elimination on the first label and the second label, and attach the eliminated label to the corresponding detonator to be displayed; The horizontal display unit surface is arranged and displayed according to the horizontal display unit surface where the detonator to be displayed is located, the number of detonators to be displayed involved in the corresponding horizontal display unit surface, and the last attached label of each detonator to be displayed.

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