Disclosure of Invention
The technical problem to be solved by the embodiment of the invention is to overcome the defect of large error of the working efficiency acquisition value of the elevator in the prior art, and provide an efficiency acquisition method, system and equipment of the elevator and a readable storage medium.
The embodiment of the invention solves the technical problems through the following technical scheme:
The efficiency acquisition method of the lifter of the logistics warehouse comprises an efficiency acquisition method of the unloading operation, and specifically comprises the following steps of:
Acquiring at least two groups of first operation time recorded by the warehouse-out operation of the lifting machine, wherein each group of first operation time comprises first time for the lifting machine to extract each bin from the article cache position and second time for the bins to be placed into a conveying line;
ascending and sequencing the at least two groups of first operation time according to the sequence of the first time;
acquiring any two adjacent first times, and acquiring two adjacent second times corresponding to the any two adjacent first times;
Judging whether the first time of the next ex-warehouse bin is earlier than the second time of the last ex-warehouse bin, if so, judging whether the second time of the next ex-warehouse bin is later than the second time of the last ex-warehouse bin, and if so, calculating a first time difference value between the second time of the last ex-warehouse bin and the first time of the next ex-warehouse bin;
obtaining a first storage time of each bin on the elevator according to the first time and the second time of each bin;
obtaining the effective operation time of the elevator when the elevator goes out of the warehouse according to the first storage time of all the bins and the first time difference value of all the two adjacent bins;
And obtaining the ex-warehouse working efficiency of the elevator according to the ex-warehouse effective working time.
Preferably, in the step of determining whether the second time of the next outgoing bin is later than the second time of the last outgoing bin, if the determination result is not later than the second time, the method for obtaining the efficiency of the outgoing operation further includes:
And taking the first storage time of the next ex-warehouse bin as the first time difference value.
Preferably, the lifter is further used for executing a warehousing operation of transporting the bins for storing the articles to the article caching position by the conveying line, the lifter sequentially transports at least two bins to the article caching position in the warehousing operation, and the efficiency obtaining method further comprises an efficiency obtaining method of the warehousing operation, and specifically comprises the following steps:
Acquiring at least two groups of second operation time recorded by each warehouse-in operation of the lifting machine, wherein each group of second operation time comprises a third time for the lifting machine to extract each bin from the conveying line and a fourth time for the lifting machine to put the bin into an article cache position;
Ascending and sequencing the at least two groups of second operation time according to the sequence of the third time;
acquiring any two adjacent third times, and acquiring two adjacent fourth times corresponding to the any two adjacent third times;
Judging whether the third time of the next warehouse-in bin is earlier than the fourth time of the last warehouse-in bin, if so, judging whether the fourth time of the next warehouse-in bin is later than the fourth time of the last warehouse-in bin, and if so, calculating a second time difference value between the fourth time of the last warehouse-in bin and the third time of the next warehouse-in bin;
Obtaining a second storage time of each bin on the elevator according to the third time and the fourth time of each bin;
Obtaining the warehousing effective operation time of the hoister according to the second storage time of all the bins and the second time difference value of all the two adjacent bins;
And obtaining the warehousing working efficiency of the hoister according to the warehousing effective operation time.
Preferably, in the step of determining whether the fourth time of the next warehouse-in bin is later than the fourth time of the last warehouse-in bin, if the determination result is not later than the fourth time, the method for acquiring efficiency of the warehouse-in operation further includes:
And taking the second storage time of the next warehouse-in bin as the second time difference value.
Preferably, each bin is attached with a unique identification code, and before the step of obtaining at least two sets of first operation time recorded by the elevator delivery job, the efficiency obtaining method further includes:
scanning unique identification codes of the bin when the hoister extracts the bin from the article cache position and places the bin into a conveying line, and correspondingly storing the unique identification codes, the first time and the second time;
For the warehousing operation, before the step of acquiring at least two groups of second operation time recorded by each warehousing operation of the hoister, the efficiency acquisition method further comprises the following steps:
And respectively scanning the unique identification code of the bin when the hoister extracts the bin from the conveying line and places the bin into an article cache position, and correspondingly storing the unique identification code, the third time and the fourth time.
Preferably, the efficiency obtaining method solves the ex-warehouse working efficiency and the warehouse-in working efficiency through the following formula, and includes:
wherein tst B<tetA<tetB;
wherein tst D<tetC<tetD;
In the above formula, E OUT is the work efficiency of the elevator in warehouse out, A and B are two adjacent bins extracted in warehouse out operation, tst A is the first time of bin A, tet A is the second time of bin A, tst B is the first time of bin B, tet B is the second time of bin B, T OUT is the total work time of the elevator in warehouse out operation, E IN is the work efficiency of the elevator in warehouse out operation, C and D are two adjacent bins placed in warehouse in operation, tst C is the first time of bin C, tet C is the second time of bin C, tst D is the first time of bin D, tet D is the second time of bin D, and T IN is the total work time of the elevator in warehouse in operation.
Preferably, the number of the article buffering positions is plural, the article buffering positions are disposed on different material box floors, and for the delivery operation, after the step of obtaining the delivery work efficiency of the elevator according to the delivery effective operation time, the efficiency obtaining method further includes:
Acquiring material box floor data of extracted materials in the warehouse-out operation of the elevator;
Judging whether the ex-warehouse working efficiency is lower than a first preset efficiency threshold value, if yes, adjusting the sequence of extracting materials by the lifting machine in the same ex-warehouse operation according to the material box floor data of the extracted materials;
For the warehousing operation, after the step of obtaining the warehousing working efficiency of the hoister according to the warehousing effective operation time, the efficiency obtaining method further comprises the following steps:
Acquiring floor data of a material box in which materials are put in each warehouse-in operation of the hoister;
judging whether the ex-warehouse working efficiency is lower than a second preset efficiency threshold, if yes, adjusting the sequence of the elevator for placing materials in the same warehousing operation according to the material box floor data of the materials placed in the elevator.
An efficiency acquisition system of a lifter of a logistics warehouse, wherein the lifter is used for executing a delivery operation of conveying a bin storing articles to a conveying line from an article cache position, the lifter sequentially extracts at least two bins in the delivery operation and conveys the bins to the conveying line, and the efficiency acquisition system comprises an operation time acquisition module, a sequencing module, a time extraction module, a first judging module, a first calculating module, a storage time acquisition module, an effective operation time acquisition module and an efficiency calculating module;
The operation time acquisition module is used for acquiring at least two groups of first operation time recorded by the warehouse-out operation of the lifting machine, and each group of first operation time comprises first time for the lifting machine to extract each bin from the article cache position and second time for the lifting machine to put the bin into a conveying line;
the sequencing module is used for sequencing the at least two groups of first operation time in ascending order according to the sequence of the first time;
the time extraction module is used for obtaining any two adjacent first times and obtaining two adjacent second times corresponding to the any two adjacent first times;
The first judging module is used for judging whether the first time of the next ex-warehouse bin is earlier than the second time of the last ex-warehouse bin, if so, the first judging module is also used for judging whether the second time of the next ex-warehouse bin is later than the second time of the last ex-warehouse bin, and if so, the first calculating module is called;
The first calculating module is used for calculating a first time difference value between the second time of the last bin and the first time of the next bin;
The storage time acquisition module is used for acquiring the first storage time of each bin on the elevator according to the first time and the second time of each bin;
the effective operation time acquisition module is used for acquiring the warehouse-out effective operation time of the hoister according to the first storage time of all the bins and the first time difference value of all the two adjacent bins;
The efficiency calculation module is used for obtaining the ex-warehouse working efficiency of the hoisting machine according to the ex-warehouse effective working time.
Preferably, the efficiency acquisition system further comprises a first time difference value determining module;
The first judging module calls the first time difference value determining module when judging that the second time of the next ex-warehouse bin is not later than the second time of the last ex-warehouse bin;
the first time difference value determining module is used for taking the first storage time of the next ex-warehouse bin as the first time difference value.
Preferably, the lifting machine is further used for carrying out a warehousing operation of transporting the bins for storing the articles to the article caching position by a conveying line, the lifting machine sequentially transports at least two bins to the article caching position in the warehousing operation, and the efficiency acquisition system further comprises a second calculation module;
The operation time acquisition module is also used for acquiring at least two groups of second operation time recorded by each warehouse-in operation of the lifting machine, and each group of second operation time comprises a third time for the lifting machine to extract each bin from the conveying line and a fourth time for the lifting machine to put the bin into an article cache position;
the sequencing module is further used for sequencing the at least two groups of second operation time in ascending order according to the sequence of the third time;
The time extraction module is further used for obtaining any two adjacent third times and obtaining two adjacent fourth times corresponding to the any two adjacent third times;
The first judging module is further used for judging whether the third time of the next warehouse-in workbin is earlier than the fourth time of the last warehouse-in workbin, if so, the first judging module is further used for judging whether the fourth time of the next warehouse-in workbin is later than the fourth time of the last warehouse-in workbin, and if so, the second calculating module is called;
The second calculation module is used for calculating a second time difference value between the fourth time of the last warehouse-in bin and the third time of the next warehouse-in bin;
The storage time acquisition module is also used for obtaining the second storage time of each bin on the elevator according to the third time and the fourth time of each bin;
the effective operation time acquisition module is also used for acquiring the warehousing effective operation time of the hoister according to the second storage time of all the bins and the second time difference value of all the two adjacent bins;
The efficiency calculation module is also used for obtaining the warehousing working efficiency of the hoister according to the warehousing effective operation time.
Preferably, the efficiency acquisition system further comprises a second time difference value determining module;
the first judging module calls the second time difference value determining module when judging that the fourth time of the next warehouse-in workbin is not later than the fourth time of the last warehouse-in workbin;
The second time difference value determining module is used for taking the second storage time of the next warehouse-in bin as the second time difference value.
Preferably, each bin is attached with a unique identification code, and the efficiency acquisition system further comprises a storage module;
For ex-warehouse operation, the storage module is used for respectively scanning the unique identification code of the bin when the hoister extracts the bin from the article cache position and places the bin into the conveying line, and correspondingly storing the unique identification code, the first time and the second time;
For warehouse-in operation, the storage module is further used for respectively scanning the unique identification code of the bin when the hoister extracts the bin from the conveying line and places the bin into the article caching position, and correspondingly storing the unique identification code, the third time and the fourth time.
Preferably, the efficiency calculation module solves the ex-warehouse working efficiency and the warehouse-in working efficiency by the following formula, including:
wherein tst B<tetA<tetB;
wherein tst D<tetc<tetD;
In the above formula, E OUT is the work efficiency of the elevator in warehouse out, A and B are two adjacent bins extracted in warehouse out operation, tst A is the first time of bin A, tet A is the second time of bin A, tst B is the first time of bin B, tet B is the second time of bin B, T OUT is the total work time of the elevator in warehouse out operation, E IN is the work efficiency of the elevator in warehouse out operation, C and D are two adjacent bins placed in warehouse in operation, tst C is the first time of bin C, tet C is the second time of bin C, tst D is the first time of bin D, tet D is the second time of bin D, and T IN is the total work time of the elevator in warehouse in operation.
Preferably, the plurality of article cache positions are arranged on different material box floors, and the efficiency acquisition system further comprises a floor data acquisition module, a second judgment module, a first adjustment module and a second adjustment module;
Aiming at the ex-warehouse operation, the floor data acquisition module acquires the floor data of a material box for extracting materials in the elevator ex-warehouse operation;
the second judging module is used for judging whether the ex-warehouse working efficiency is lower than a first preset efficiency threshold value, and if yes, the first adjusting module is called;
The first adjusting module is used for adjusting the sequence of the materials extracted by the lifting machine in the same ex-warehouse operation according to the floor data of the material box for extracting the materials;
Aiming at the warehousing operation, the floor data acquisition module is also used for acquiring the floor data of a material box for putting materials in each warehousing operation of the hoister;
The second judging module is further configured to judge whether the ex-warehouse working efficiency is lower than a second preset efficiency threshold, and if yes, call the second adjusting module;
The second adjusting module is used for adjusting the sequence of the elevator for placing the materials in the same warehousing operation according to the floor data of the material box for placing the materials.
An electronic device comprises a memory, a processor and a computer program stored on the memory and capable of running on the processor, wherein the processor realizes the method for acquiring the efficiency of the lifting machine of the logistics warehouse when executing the computer program.
A computer readable storage medium having stored thereon a computer program which when executed by a processor performs the steps of the method for obtaining efficiency of a hoist of a logistics warehouse as described above.
The embodiment of the invention has the positive progress effects that: according to the embodiment of the invention, whether the hoister carries two or more bins at a time in operation can be effectively distinguished, the acquisition mode of the hoister delivery efficiency is further optimized, the more accurate hoister delivery efficiency is obtained, and the subsequent improvement of the hoister can be effectively guided.
Detailed Description
The invention is further illustrated by means of the following examples, which are not intended to limit the scope of the invention.
Example 1
The method for acquiring the efficiency of the lifter of the logistics warehouse is used for executing the delivery operation of conveying the bins for storing the articles to the conveying line from the article buffer position, and is characterized in that the lifter successively extracts at least two bins to be conveyed to the conveying line in the delivery operation, and the method for acquiring the efficiency comprises the efficiency of the delivery operation and specifically comprises the following steps:
Step 101, acquiring at least two groups of first operation time recorded by the warehouse-out operation of the elevator; each set of first operating times includes a first time at which the elevator extracts each bin from the item cache location and a second time at which the bin is placed into the conveyor line;
102, obtaining first storage time of each bin on a lifting machine according to first time and second time of each bin;
Step 103, sorting at least two groups of first operation time in ascending order according to the sequence of the first time;
104, acquiring any two adjacent first times, and acquiring two adjacent second times corresponding to the any two adjacent first times;
step 105, judging whether the first time of the next bin is earlier than the second time of the last bin, if yes, executing step 106; if not, returning to step 104 to select another group of adjacent bins;
Step 106, judging whether the second time of the next ex-warehouse bin is later than the second time of the last ex-warehouse bin, if so, executing step 107; if not, go to step 108;
step 107, calculating a first time difference between the second time of the last bin and the first time of the next bin, and then executing step 109;
Step 108, taking the first storage time of the next bin to be taken out as a first time difference value, and then executing step 109.
Step 109, obtaining the warehouse-out effective operation time of the elevator according to the first storage time of all the bins and the first time difference value of all the two adjacent bins;
and 110, obtaining the ex-warehouse working efficiency of the elevator according to the ex-warehouse effective working time.
Specifically, the efficiency obtaining method solves the work efficiency of ex-warehouse through the following formula:
wherein tst B<tetA<tetB;
when the second time of the next-out bin is not later than the second time of the last-out bin, the operation time of the next-out bin (B) is contained in the operation time of the last-out bin (A) when the elevator performs the out-of-stock operation, and the out-of-stock working efficiency is solved by the following formula:
wherein tst B<tetB≤tetA;
In the above formula, E OUT is the work efficiency of the elevator in warehouse-out, A and B are two adjacent bins extracted in warehouse-out operation, tst A is the first time of bin A, tet A is the second time of bin A, tst B is the first time of bin B, tet B is the second time of bin B, and T OUT is the total work time of the elevator in warehouse-out operation.
It should be noted that, for each piece of ex-warehouse task information of the elevator, we record the task start time, i.e. the time when the elevator starts to go to the buffer position of the material box floor where the first ex-warehouse material box is located to fetch the material box, when the task is finished, record the task end time, i.e. the time when the elevator conveys the ex-warehouse material box to the tunnel opening, the material box enters the tunnel opening from the elevator, and the total working time of the ex-warehouse operation of the elevator is obtained according to the difference of the two times;
In order to quickly identify which bin's single out-of-warehouse job of the elevator contains, the out-of-warehouse tasks in all target time ranges are sorted in ascending order by the task start time of each bin, then we calculate the task start time of the next one of every two adjacent out-warehouse tasks minus the task end time of the previous one, taking a and B above as examples of two adjacent bins extracted in the out-of-warehouse job, i.e., tst B-tetA. As can be obtained from the above inequality, if tst B-tetA >0, i.e., the two bin discharge tasks are not completed by the same operation of the elevator; if tst B-tetA is less than 0, namely the two bin delivery tasks are completed by the same operation of the elevator; if tst B-tetA =0, it is not possible to distinguish whether the outbound task a and the outbound task B are completed by the same operation of the outbound elevator, and time information of the adjacent task before the outbound task a and the adjacent task after the outbound task B is also required, however, when tst B-tetA =0, no overlapping time period is repeatedly calculated, so from the perspective of calculating the efficiency of the outbound elevator, we do not need to know whether the two bin outbound tasks are completed by the same operation of the elevator at this time.
In the embodiment, whether the hoister carries two or more bins at a time in the warehouse-out operation is effectively resolved, the acquisition mode of the warehouse-out efficiency of the hoister is further optimized, the more accurate warehouse-out efficiency of the hoister is obtained, and the subsequent improvement of the hoister can be effectively guided.
Example 2
The method for obtaining efficiency of a lifter in a logistics warehouse according to the present embodiment is further improved on the basis of embodiment 1, as shown in fig. 2, the lifter is further configured to perform a warehousing operation for transporting bins for storing articles from a conveyor line to an article cache location, the lifter sequentially transports at least two bins to the article cache location during the warehousing operation, and the method for obtaining efficiency further includes a method for obtaining efficiency of the warehousing operation, and specifically includes:
Step 201, obtaining at least two groups of second operation time recorded by each warehouse-in operation of the hoister; each set of second operating times includes a third time for the elevator to extract each bin from the conveyor line and a fourth time for the bins to be placed in an item buffer location;
step 202, obtaining second storage time of each bin on the elevator according to the third time and the fourth time of each bin;
Step 203, sorting at least two groups of second operation time in ascending order according to the sequence of the third time;
step 204, acquiring any two adjacent third times, and acquiring two adjacent fourth times corresponding to the any two adjacent third times;
Step 205, judging whether the third time of the next warehouse-in bin is earlier than the fourth time of the last warehouse-in bin, if yes, executing step 205; if not, returning to step 203 to select another group of adjacent bins;
step 206, judging whether the fourth time of the next warehouse-in bin is later than the fourth time of the last warehouse-in bin, if so, executing step 207, and if not, executing step 208;
step 207, calculating a second time difference between the fourth time of the last warehouse-in bin and the third time of the next warehouse-in bin, and then executing step 209;
step 209, obtaining the warehouse-in effective operation time of the elevator according to the second storage time of all the bins and the second time difference value of all the two adjacent bins;
and 210, obtaining the warehousing working efficiency of the elevator according to the warehousing effective operation time.
Specifically, the efficiency obtaining method solves the warehouse-in working efficiency through the following formula:
wherein tst D<tetC<tetD;
when the second time of the next warehouse-in bin is not later than the second time of the last warehouse-in bin, the operation time of the next warehouse-in bin (D) is included in the operation time of the last warehouse-in bin (C) when the elevator performs warehouse-in operation, and the warehouse-in working efficiency at the moment is solved by the following formula:
wherein tst D<tetD≤tetC;
In the above formula, E IN is the work efficiency of the elevator in warehouse out, C and D are two adjacent bins put in the warehouse in operation, tst c is the first time of bin C, tet C is the second time of bin C, tst D is the first time of bin D, tet D is the second time of bin D, and T IN is the total work time of the elevator warehouse in operation.
It should be noted that, for each piece of warehouse-in task information of the elevator, we record the task start time, i.e. the time when the elevator starts to go to the tunnel opening to get the material box, when the task ends, record the task end time, i.e. the time when the elevator conveys the warehouse-in material box to the destination floor, the material box enters the buffer position from the elevator, and obtain the total work time of the warehouse-in operation of the elevator according to the two time differences;
In order to quickly identify which bin is the one of the plurality of bins in the single-pass job of the elevator, the bins in all the target time ranges are sorted in ascending order according to the start time of each bin, then we calculate the start time of the next one of every two adjacent bins minus the end time of the previous one, taking the above C and D as examples of the two adjacent bins extracted from the bin, i.e., tst D-tetC. As can be obtained from the above inequality, if tst D-tetc >0, i.e., the two bin-entering tasks are not completed by the same operation of the elevator; if tst D-tetC is less than 0, namely the two bin warehousing tasks are completed by the same operation of the elevator; if tst D-tetC =0, it is not possible to distinguish whether the warehousing tasks C and D are completed by the same operation of the warehousing elevator according to the time information of the adjacent task before the warehousing task C and the adjacent task after the warehousing task D, however, when tst D-tetC =0, no overlapping time period is repeatedly calculated, so from the perspective of calculating the efficiency of the warehousing elevator, we do not need to know whether the two bin warehousing tasks are completed by the same operation of the elevator at this time.
In the embodiment, whether the hoister carries two or more bins at a time in the warehouse-in operation is effectively resolved, the acquisition mode of the warehouse-in efficiency of the hoister is further optimized, the more accurate warehouse-in efficiency of the hoister is obtained, and the subsequent improvement of the hoister can be effectively guided.
Example 3
The method for obtaining the efficiency of the lifter in the logistics warehouse according to the present embodiment is further improved on the basis of embodiment 2, as shown in fig. 3, a unique identification code is attached to each bin, and before the step of obtaining at least two sets of first operation time recorded in the lifter's warehouse-out operation, the method for obtaining the efficiency further includes:
step 100, respectively scanning unique identification codes of the bin when the hoister extracts the bin from the article cache position and places the bin into a conveying line, and correspondingly storing the unique identification codes, the first time and the second time;
For the warehousing operation, as shown in fig. 4, before the step of obtaining at least two sets of second operation times recorded in each warehousing operation of the elevator, the efficiency obtaining method further includes:
step 200, respectively scanning the unique identification code of the bin when the hoister extracts the bin from the conveying line and places the bin into the article cache position, and correspondingly storing the unique identification code, the third time and the fourth time.
In addition, the plurality of article cache locations are provided, the article cache locations are disposed on different material box floors, and with respect to the ex-warehouse operation, referring to fig. 3, after the step of obtaining the ex-warehouse working efficiency of the elevator according to the ex-warehouse effective operation time, the efficiency obtaining method further includes:
step 111, acquiring material box floor data of extracted materials in the warehouse-out operation of the elevator;
Step 112, judging whether the warehouse work efficiency is lower than a first preset efficiency threshold, if yes, executing step 113; if not, the order of the materials extracted by the hoisting machine does not need to be adjusted;
step 113, adjusting the sequence of extracting materials by the elevator in the same ex-warehouse operation according to the floor data of the material box for extracting the materials;
for the warehousing operation, referring to fig. 4, after the step of obtaining the warehousing working efficiency of the elevator according to the warehousing effective operation time, the efficiency obtaining method further includes:
Step 211, acquiring floor data of a material box in which materials are put in each warehouse-in operation of the elevator;
step 212, judging whether the warehouse work efficiency is lower than a second preset efficiency threshold, if yes, executing step 213; if not, the order of the materials extracted by the hoisting machine does not need to be adjusted;
and 213, adjusting the material placing sequence of the elevator in the same warehousing operation according to the material box floor data of the materials.
In this embodiment, by identifying the identification code on the bin, and correspondingly recording the identification code of the bin and the time of the start and end of the bin being carried, in addition, after the work efficiency of delivering to the warehouse and the work efficiency of delivering to the warehouse of the elevator are obtained, if the work efficiency value does not meet the expectations, the extraction sequence can be improved with reference to the existing sequence of extracting materials when the same task of delivering to the warehouse or the task of delivering to the warehouse is next time, so as to further adjust the operation mode of the elevator.
Example 4
An efficiency acquisition system of a lifter of a logistics warehouse, wherein the lifter is used for executing a delivery operation of conveying a bin storing articles to a conveying line from an article cache position, and sequentially extracting at least two bins to be conveyed to the conveying line in the delivery operation, and the efficiency acquisition system comprises an operation time acquisition module 1, a storage time acquisition module 2, a sequencing module 3, a time extraction module 4, a first judgment module 5, a first calculation module 6, a first time difference value determination module 7, an effective operation time acquisition module 8 and an efficiency calculation module 9, wherein the operation time acquisition module 1, the storage time acquisition module 2, the sequencing module 3, the time extraction module 4, the first judgment module 5, the first calculation module 6, the first time difference value determination module 7 and the effective operation time acquisition module 8 are sequentially connected with the conveying line;
The operation time acquisition module 1 is used for acquiring at least two groups of first operation time recorded by the warehouse-out operation of the lifting machine, wherein each group of first operation time comprises a first time for the lifting machine to extract each bin from the article cache position and a second time for the lifting machine to put the bin into a conveying line;
The storage time acquisition module 2 is used for acquiring the first storage time of each bin on the elevator according to the first time and the second time of each bin;
the sorting module 3 is configured to sort the at least two groups of first operation times in ascending order according to the sequence of the first times;
The time extraction module 4 is configured to obtain any two adjacent first times, and obtain two adjacent second times corresponding to the any two adjacent first times;
The first judging module 5 is configured to judge whether a first time of a next bin to be discharged is earlier than a second time of a last bin to be discharged, if so, the first judging module continues to judge whether the second time of the next bin to be discharged is later than the second time of the last bin to be discharged, and if so, the first calculating module 6 is invoked; if not, calling the first time difference value determining module 7;
The first calculating module 6 is configured to calculate a first time difference between a second time of the last bin and a first time of the next bin;
The first time difference value determining module 7 is configured to take a first storage time of the next bin to be taken out as the first time difference value;
the effective operation time acquisition module 8 is used for obtaining the warehouse-out effective operation time of the elevator according to the first storage time of all the bins and the first time difference value of all the two adjacent bins;
the efficiency calculation module 9 is used for obtaining the ex-warehouse working efficiency of the hoisting machine according to the ex-warehouse effective working time.
Specifically, the efficiency obtaining method solves the work efficiency of ex-warehouse through the following formula:
wherein tst B<tetA<tetB;
when the second time of the next-out bin is not later than the second time of the last-out bin, the operation time of the next-out bin (B) is contained in the operation time of the last-out bin (A) when the elevator performs the out-of-stock operation, and the out-of-stock working efficiency is solved by the following formula:
wherein tst B<tetB≤tetA;
In the above formula, E OUT is the work efficiency of the elevator in warehouse-out, A and B are two adjacent bins extracted in warehouse-out operation, tst A is the first time of bin A, tet A is the second time of bin A, tst B is the first time of bin B, tet B is the second time of bin B, and T OUT is the total work time of the elevator in warehouse-out operation.
It should be noted that, for each piece of ex-warehouse task information of the elevator, we record the task start time, i.e. the time when the elevator starts to go to the buffer position of the material box floor where the first ex-warehouse material box is located to fetch the material box, when the task is finished, record the task end time, i.e. the time when the elevator conveys the ex-warehouse material box to the tunnel opening, the material box enters the tunnel opening from the elevator, and the total working time of the ex-warehouse operation of the elevator is obtained according to the difference of the two times;
In order to quickly identify which bin's single out-of-warehouse job of the elevator contains, the out-of-warehouse tasks in all target time ranges are sorted in ascending order by the task start time of each bin, then we calculate the task start time of the next one of every two adjacent out-warehouse tasks minus the task end time of the previous one, taking a and B above as examples of two adjacent bins extracted in the out-of-warehouse job, i.e., tst B-tetA. As can be obtained from the above inequality, if tst B-tetA >0, i.e., the two bin discharge tasks are not completed by the same operation of the elevator; if tst B-tetA is less than 0, namely the two bin delivery tasks are completed by the same operation of the elevator; if tst B-tetA =0, it is not possible to distinguish whether the outbound task a and the outbound task B are completed by the same operation of the outbound elevator, and time information of the adjacent task before the outbound task a and the adjacent task after the outbound task B is also required, however, when tst B-tetA =0, no overlapping time period is repeatedly calculated, so from the perspective of calculating the efficiency of the outbound elevator, we do not need to know whether the two bin outbound tasks are completed by the same operation of the elevator at this time.
In the embodiment, whether the hoister carries two or more bins at a time in the warehouse-out operation is effectively resolved, the acquisition mode of the warehouse-out efficiency of the hoister is further optimized, the more accurate warehouse-out efficiency of the hoister is obtained, and the subsequent improvement of the hoister can be effectively guided.
Example 5
The efficiency acquisition system of the lifter of the logistics warehouse of the present embodiment is further improved on the basis of embodiment 4, and the lifter is further used for performing a warehousing operation of transporting the bins for storing the articles from the conveying line to the article caching location, and each time the lifter performs the warehousing operation, at least two bins are sequentially transported to the article caching location, as shown in fig. 6, and the efficiency acquisition system further includes a second calculation module 10 and a second time difference value determination module 11;
the operation time acquisition module 1 is further used for acquiring at least two groups of second operation time recorded by each warehouse-in operation of the lifting machine, wherein each group of second operation time comprises a third time for the lifting machine to extract each bin from the conveying line and a fourth time for the lifting machine to put the bin into an article cache position;
The sorting module 3 is further configured to sort the at least two groups of second operation times in ascending order according to the sequence of the third time;
The time extraction module 4 is further configured to obtain any two adjacent third times, and obtain two adjacent fourth times corresponding to the any two adjacent third times;
The first judging module 5 is further configured to judge whether the third time of the next bin is earlier than the fourth time of the last bin, if so, the first judging module is further configured to judge whether the fourth time of the next bin is later than the fourth time of the last bin, if so, call the second calculating module 10, and if not, call the second time difference determining module 11;
the second calculating module 10 is configured to calculate a second time difference between the fourth time of the last-warehouse-in bin and the third time of the next-warehouse-in bin;
the second time difference determining module 11 is configured to take a second storage time of the next bin into the warehouse as the second time difference.
The storage time obtaining module 2 is further used for obtaining a second storage time of each bin on the elevator according to the third time and the fourth time of each bin;
The effective operation time obtaining module 8 is further configured to obtain a warehousing effective operation time of the elevator according to the second storage time of all bins and the second time difference value of all two adjacent bins;
the efficiency calculation module 9 is further configured to obtain the warehousing working efficiency of the elevator according to the warehousing effective operation time.
Specifically, the efficiency obtaining method solves the warehouse-in working efficiency through the following formula:
wherein tst D<tetC<tetD;
when the second time of the next warehouse-in bin is not later than the second time of the last warehouse-in bin, the operation time of the next warehouse-in bin (D) is included in the operation time of the last warehouse-in bin (C) when the elevator performs warehouse-in operation, and the warehouse-in working efficiency at the moment is solved by the following formula:
wherein tst D<tetD≤tetc;
In the above formula, E IN is the work efficiency of the elevator in warehouse out, C and D are two adjacent bins put in the warehouse in operation, tst C is the first time of bin C, tet c is the second time of bin C, tst D is the first time of bin D, tet D is the second time of bin D, and T IN is the total work time of the elevator warehouse in operation.
It should be noted that, for each piece of warehouse-in task information of the elevator, we record the task start time, i.e. the time when the elevator starts to go to the tunnel opening to get the material box, when the task ends, record the task end time, i.e. the time when the elevator conveys the warehouse-in material box to the destination floor, the material box enters the buffer position from the elevator, and obtain the total work time of the warehouse-in operation of the elevator according to the two time differences;
In order to quickly identify which bin is the one of the plurality of bins in the single-pass job of the elevator, the bins in all the target time ranges are sorted in ascending order according to the start time of each bin, then we calculate the start time of the next one of every two adjacent bins minus the end time of the previous one, taking the above C and D as examples of the two adjacent bins extracted from the bin, i.e., tst D-tetC. As can be obtained from the above inequality, if tst D-tetC >0, i.e., the two bin-entering tasks are not completed by the same operation of the elevator; if tst D-tetC is less than 0, namely the two bin warehousing tasks are completed by the same operation of the elevator; if tst D-tetc =0, it is not possible to distinguish whether the warehousing tasks C and D are completed by the same operation of the warehousing elevator according to the time information of the adjacent task before the warehousing task C and the adjacent task after the warehousing task D, however, when tst D-tetC =0, no overlapping time period is repeatedly calculated, so from the perspective of calculating the efficiency of the warehousing elevator, we do not need to know whether the two bin warehousing tasks are completed by the same operation of the elevator at this time.
In the embodiment, whether the hoister carries two or more bins at a time in the warehouse-in operation is effectively resolved, the acquisition mode of the warehouse-in efficiency of the hoister is further optimized, the more accurate warehouse-in efficiency of the hoister is obtained, and the subsequent improvement of the hoister can be effectively guided.
Example 6
The efficiency acquisition system of the hoister of the logistics warehouse of the embodiment is further improved on the basis of the embodiment 5, in addition, a unique identification code is attached to each bin, and as shown in fig. 7, the efficiency acquisition system further comprises a storage module 12;
For ex-warehouse operations, the storage module 12 is configured to scan the unique identification code of the bin when the elevator extracts the bin from the article cache location and places the bin into the conveyor line, and correspondingly store the unique identification code, the first time, and the second time;
For the warehouse-in operation, the storage module 12 is further configured to scan the unique identification code of the bin when the elevator extracts the bin from the conveying line and places the bin into the article buffering position, and correspondingly store the unique identification code, the third time and the fourth time.
In addition, the plurality of article cache locations are arranged on different material box floors, and referring to fig. 7, the efficiency acquisition system further comprises a floor data acquisition module 13, a second judgment module 14, a first adjustment module 15 and a second adjustment module 16;
For the ex-warehouse operation, the floor data acquisition module 13 acquires the floor data of a material box for extracting materials in the elevator ex-warehouse operation;
the second judging module 14 is configured to judge whether the work efficiency of the ex-warehouse is lower than a first preset efficiency threshold, and if yes, call the first adjusting module 15;
The first adjusting module 15 is configured to adjust the order of materials extracted by the elevator in the same ex-warehouse operation according to the floor data of the material box of the extracted materials;
for ex-warehouse operation, the floor data acquisition module 13 is further used for acquiring the floor data of a material box in which materials are put in each time of the elevator in-warehouse operation;
The second judging module 14 is further configured to judge whether the work efficiency of the ex-warehouse is lower than a second preset efficiency threshold, and if yes, call the second adjusting module 16;
The second adjusting module 16 is configured to adjust the order of the materials placed in the elevator in the same warehouse-in operation according to the floor data of the material placing bin.
In this embodiment, by identifying the identification code on the bin, and correspondingly recording the identification code of the bin and the time of the start and end of the bin being carried, in addition, after the work efficiency of delivering to the warehouse and the work efficiency of delivering to the warehouse of the elevator are obtained, if the work efficiency value does not meet the expectations, the extraction sequence can be improved with reference to the existing sequence of extracting materials when the same task of delivering to the warehouse or the task of delivering to the warehouse is next time, so as to further adjust the operation mode of the elevator.
Example 7
An electronic device comprising a memory, a processor and a computer program stored on the memory and executable on the processor, the processor implementing the method of obtaining efficiency of a hoist for a logistics warehouse as described in any one of embodiments 1-3 when executing the computer program.
Fig. 8 illustrates a block diagram of an exemplary electronic device 90 suitable for use in implementing embodiments of the present invention. The electronic device 90 shown in fig. 8 is merely an example, and should not be construed as limiting the functionality and scope of use of embodiments of the present invention.
As shown in fig. 8, the electronic device 90 may be embodied in the form of a general purpose computing device, which may be a server device, for example. Components of the electronic device 90 may include, but are not limited to: at least one processor 91, at least one memory 92, a bus 93 connecting the different system components, including the memory 92 and the processor 91.
The bus 93 includes a data bus, an address bus, and a control bus.
The memory 92 may include volatile memory such as Random Access Memory (RAM) 921 and/or cache memory 922, and may further include Read Only Memory (ROM) 923.
Memory 92 may also include a program tool 925 having a set (at least one) of program modules 924, such program modules 924 including, but not limited to: an operating system, one or more application programs, other program modules, and program data, each or some combination of which may include an implementation of a network environment.
The processor 91 executes various functional applications and data processing by running a computer program stored in the memory 92.
The electronic device 90 may also communicate with one or more external devices 94 (e.g., keyboard, pointing device, etc.). Such communication may occur through an input/output (I/O) interface 95. Also, the electronic device 90 may communicate with one or more networks such as a Local Area Network (LAN), a Wide Area Network (WAN) and/or a public network, such as the Internet, through a network adapter 96. The network adapter 96 communicates with other modules of the electronic device 90 via the bus 93. It should be appreciated that although not shown, other hardware and/or software modules may be used in connection with electronic device 90, including, but not limited to: microcode, device drivers, redundant processors, external disk drive arrays, RAID (disk array) systems, tape drives, data backup storage systems, and the like.
It should be noted that although several units/modules or sub-units/modules of an electronic device are mentioned in the above detailed description, such a division is merely exemplary and not mandatory. Indeed, the features and functionality of two or more units/modules described above may be embodied in one unit/module in accordance with embodiments of the present application. Conversely, the features and functions of one unit/module described above may be further divided into ones that are embodied by a plurality of units/modules.
Example 8
A computer-readable storage medium having stored thereon a computer program which, when executed by a processor, performs the steps of the method for obtaining efficiency of a hoist for a logistics warehouse as described in any one of embodiments 1-3.
More specifically, among others, readable storage media may be employed including, but not limited to: portable disk, hard disk, random access memory, read only memory, erasable programmable read only memory, optical storage device, magnetic storage device, or any suitable combination of the foregoing.
In a possible implementation manner, the embodiment of the invention may also be implemented in the form of a program product comprising program code for causing a terminal device to carry out the steps of the method for obtaining the efficiency of a lifting machine of a logistics warehouse as described in any one of embodiments 1-3, when said program product is run on the terminal device.
Wherein the program code for carrying out embodiments of the present invention may be written in any combination of one or more programming languages, such that the program code is executable entirely on the user device, partially on the user device, as a stand-alone software package, partially on the user device, partially on the remote device, or entirely on the remote device.
While specific embodiments of the invention have been described above, it will be appreciated by those skilled in the art that this is by way of example only, and the scope of the invention is defined by the appended claims. Various changes and modifications to these embodiments may be made by those skilled in the art without departing from the principles and spirit of the invention, but such changes and modifications fall within the scope of the invention.