CN105528675A - Production distribution scheduling method based on ant colony algorithm - Google Patents

Production distribution scheduling method based on ant colony algorithm Download PDF

Info

Publication number
CN105528675A
CN105528675A CN201510897042.4A CN201510897042A CN105528675A CN 105528675 A CN105528675 A CN 105528675A CN 201510897042 A CN201510897042 A CN 201510897042A CN 105528675 A CN105528675 A CN 105528675A
Authority
CN
China
Prior art keywords
max
candidate
group
ant
batch
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Granted
Application number
CN201510897042.4A
Other languages
Chinese (zh)
Other versions
CN105528675B (en
Inventor
程八一
黄小曼
王刚
胡笑旋
李凯
刘渤海
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Hefei University of Technology
Original Assignee
Hefei University of Technology
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Hefei University of Technology filed Critical Hefei University of Technology
Priority to CN201510897042.4A priority Critical patent/CN105528675B/en
Publication of CN105528675A publication Critical patent/CN105528675A/en
Application granted granted Critical
Publication of CN105528675B publication Critical patent/CN105528675B/en
Active legal-status Critical Current
Anticipated expiration legal-status Critical

Links

Classifications

    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06QINFORMATION AND COMMUNICATION TECHNOLOGY [ICT] SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES; SYSTEMS OR METHODS SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES, NOT OTHERWISE PROVIDED FOR
    • G06Q10/00Administration; Management
    • G06Q10/06Resources, workflows, human or project management; Enterprise or organisation planning; Enterprise or organisation modelling
    • G06Q10/063Operations research, analysis or management
    • G06Q10/0631Resource planning, allocation, distributing or scheduling for enterprises or organisations
    • G06Q10/06312Adjustment or analysis of established resource schedule, e.g. resource or task levelling, or dynamic rescheduling
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06NCOMPUTING ARRANGEMENTS BASED ON SPECIFIC COMPUTATIONAL MODELS
    • G06N3/00Computing arrangements based on biological models
    • G06N3/004Artificial life, i.e. computing arrangements simulating life
    • G06N3/006Artificial life, i.e. computing arrangements simulating life based on simulated virtual individual or collective life forms, e.g. social simulations or particle swarm optimisation [PSO]

Abstract

The present invention discloses a production distribution scheduling method based on ant colony algorithm. The modeling is carried out for a production combined distribution scheduling problem with volume and production time differences, then the solution is carried out through an improved ant colony algorithm, thus a set of optimized scheme of production distribution scheduling is obtained, the total operation cost of a target position manufacturing enterprise is reduced greatly, and the enterprise operational efficiency is improved. At the same time, for a specific problem, a practical application development solution is given, and thus an enterprise can efficiently obtain a suitable optimal scheduling scheme.

Description

A kind of production distribution scheduling method based on ant group algorithm
Technical field
The invention belongs to supply chain field, specifically a kind of production distribution scheduling method based on ant group optimization.
Background technology
Under Vehicles Collected from Market environment, the core competitiveness of manufacturing enterprise is no longer simple manufacturing capacity, but supply chain operating capability, manufacturing enterprise needs that buying, production and dispensing link are carried out the overall situation and controls, production system and logistics system are carried out combined optimization, the maximization of overall economic benefit could be obtained, the competitive power of enterprise.
Combined dispatching is the optimization method of a class towards supply chain, adopts the normal form of accurately scheduling, and in design supply chain, the combined dispatching scheme of each link, realizes the optimization of enterprise-wide economic benefit, thus the service level of enterprise.
Under at present traditional mode of production pattern all being concentrated on to the research of associating scheduling problem, in this kind of production model, an equipment can process the operation of an operation or a collection of fixed qty simultaneously, but in real industry, difference batch production pattern has the character of these two kinds of production models concurrently, and more more complicated than this two class, apply more extensive.And traditional dispatching method only considers how to reduce production cost mostly simply, do not consider how to make the total cost of production dispensing combined dispatching minimum, therefore can not adapt to Production requirement instantly.
Summary of the invention
The present invention is the weak point existed to overcome prior art, provides a kind of production distribution scheduling method based on ant group optimization, to realizing the optimization of enterprise-wide economic benefit, thus can reduce enterprise cost, the efficiency of service of enterprise.
The present invention is that technical solution problem adopts following technical scheme:
The feature of a kind of production distribution scheduling method based on ant group optimization of the present invention is carried out as follows:
Step 1, suppose to exist n batch needs and carry out producing and providing and delivering, the volume of equipment of producing each batch is designated as B; The vehicle volume of each batch of providing and delivering is designated as V; Form one batch of set by described n batch, be designated as U={b 1, b 2..., b k..., b n, b krepresent that kth is criticized; And by a kth crowd b ksize be designated as S k; By a kth crowd b kproduction time be designated as T k; A group is designated as by adding all batches of carrying out providing and delivering in same car; 1≤k≤n;
Step 2, measure-alike batch in described crowd of set U is divided into a class, thus obtains a classification; Be designated as W={w 1, w 2..., w z..., w a, w zrepresent z classification; Described z classification w zin batch total be designated as f z;
The parameters of step 3, initialization ant group algorithm, comprising: m represents m ant, and initialization m=1; M represents ant sum, L represents iterations, and initialization L=1; L maxrepresent maximum iteration time;
Step 4, defining variable are l, and initialization l=1; A definition kth crowd b kidentifier be flag k, and initialization flag k=0;
Step 5, create l the group of m ant of the L time iteration and l the candidate list corresponding with it and described n batch can be assigned in a different group by m ant of the L time iteration provide and deliver; And the vehicle fleet that m ant of the L time iteration completes grouping use all batches
Step 6, by m+1 assignment to m, and return step 5 and perform, until m=M, thus the vehicle fleet set that all M the ants obtaining the L time iteration complete grouping use all batches
Step 7, from described vehicle fleet set in choose the locally optimal solution of minimum value as the L time iteration, be designated as π l;
Step 8, i-th candidate utilizing formula (1) to upgrade the L time iteration criticize b i' join l group with jth in candidate criticize b j' between pheromones thus obtain the pheromones of the L+1 time iteration
In formula (1), ρ represents the evaporation rate of pheromones; m ij(L) represent that in the L time iteration, i-th candidate criticizes b i' join l group with jth in candidate criticize b j' be assigned to the number of times of same group; And have:
Step 9, formula (3) and formula (4) is utilized to judge whether meet pheromone concentration and limit interval [τ min, τ max], if meet, then retain the pheromones of the L+1 time iteration and perform step 11; Otherwise, perform step 10:
τ m a x ≤ 1 ( 1 - ρ ) f ( π * ) - - - ( 3 )
τ min = τ m a x ( 1 - 0.05 a ) ( a / 2 - 1 ) 0.05 a - - - ( 4 )
In formula (3) and formula (4), π *represent the minimum value in current acquired all locally optimal solutions;
If step 10 then will assignment is given if then will assignment is given
Step 11; By L+1 assignment to L, judge L < L maxwhether set up, if set up, return step 4 and perform, otherwise complete L maxsecondary iteration, and obtain globally optimal solution π best, be L maxthe minimum value of all locally optimal solutions in secondary iteration; With globally optimal solution π bestcorresponding distribution project is as optimum distribution project;
Step 12, batch will carry out descending sort according to the production time in each group in optimum distribution project, the ranking results of acquisition as series-produced order, thus obtains Optimal Production and dispensing combined dispatching scheme.
The feature of the production scheduling method of the porcelain calcine technology based on ant group optimization of the present invention is also, in described step 5, m ant of the L time iteration is assigned to described n batch in different groups as follows to provide and deliver:
Step 5.1, defining variable f;
Step 5.2, initialization z=1;
Step 5.3, initialization f=1;
Step 5.4, judge described z classification w zin select the identifier flag of f crowd fwhether be 1; If 1, then represent that f batch has completed grouping, and perform step 5.5; Otherwise, by z classification w zin select f batch and join described l candidate list in, and perform step 5.6;
Step 5.5, by f+1 assignment to f, and return step 5.4 and perform, until f=f ztill after, perform step 5.6;
Step 5.6, by z+1 assignment to z, and return step 5.3 and perform; Until after z=a, thus obtain l candidate list to be updated remember described l candidate list to be updated in candidate criticize as { b 1', b 2' ..., b ' i..., b a'; 1≤i≤a;
Step 5.7, from described candidate list to be updated crowd b that middle selection size is maximum key' joining described l group is criticized as key and key is criticized b key' identifier flag ' keybe set to 1; Then from candidate list, crucial crowd b is deleted key';
Step 5.8, formula (5) is utilized to obtain m ant by described l candidate list to be updated in i-th candidate criticize b i' join l group candidate probability thus obtain m ant and all candidates are criticized join l group candidate probability set
P i 1 m = &theta; i 1 &alpha; &eta; i 1 &beta; &Sigma; b i &prime; &Element; X 1 &prime; ( L ) ( m ) &theta; i 1 &alpha; &eta; i 1 &beta; b i &prime; &Element; X 1 &prime; ( L ) ( m ) 0 e l s e - - - ( 5 )
In formula (5), α is the weight of pheromones, and β is the weight of heuristic information; θ ilrepresent that i-th candidate criticizes b i' l group can be joined the expecting degree of middle dispensing; η ilrepresent and i-th candidate is criticized b i' l group can be joined the heuristic information of dispensing; And have:
&theta; i 1 = 1 | G 1 ( L ) ( m ) | &Sigma; j &Element; G 1 ( L ) ( m ) &tau; i j ( L ) - - - ( 6 )
&eta; i 1 = S i &Sigma; i = 1 n S i - - - ( 7 )
In formula (6), τ ijrepresent that i-th candidate of the L time iteration criticizes b i' join l group with jth in candidate criticize b j' between pheromones, 1≤i ≠ j≤a; S irepresent that i-th candidate criticizes b ' isize;
Step 5.9, from described candidate probability set in select Maximum alternative probability corresponding Maximum alternative is criticized, and is designated as b ' max; Then described Maximum alternative criticizes b ' maxsize be designated as s max;
Step 5.10, described Maximum alternative is criticized b ' maxjoin described l group and Maximum alternative is criticized b ' maxidentifier flag ' maxbe set to 1;
Step 5.11, described vehicle volume V is deducted described Maximum alternative criticize b ' maxsize s max, obtain residue vehicle volume, be designated as
Step 5.12, according to described residue vehicle volume from described l candidate list to be updated middle deletion size is greater than described residue vehicle volume candidate criticize; Thus obtain l the candidate list upgraded
Step 5.13, obtain described Maximum alternative and criticize b ' maxcorresponding classification, is designated as w max;
Step 5.14, judge that described Maximum alternative criticizes b ' maxat corresponding classification w maxin whether be f zindividual batch; If so, then from l the candidate list upgraded the described Maximum alternative of middle deletion criticizes b ' max; Otherwise, from l the candidate list upgraded the described Maximum alternative of middle deletion criticizes b ' max, and described Maximum alternative is criticized b ' maxcorresponding classification w maxin f maxcriticize l the candidate list joining described renewal for+1 in, thus obtain l the candidate list again upgraded
Step 5.15, with described l the candidate list again upgraded as l candidate list to be updated and return the execution of step 5.8 order, until l candidate list to be updated till sky, by l the group of m ant of the L time iteration fill it up with; Thus obtain l the group of m ant of the L time iteration distribution project;
Whether step 5.16, the identifier judging n batch are all 1, if be all 1, have then represented that m ant of the L time iteration is to the individual distribution criticized of described n; And l assignment is given otherwise, by l+1 assignment to l, and return the execution of step 5 order.
Compared with the prior art, beneficial effect of the present invention is embodied in:
1, the present invention is under typical difference is produced in batches pattern, the production of research manufacturing enterprise, dispensing two benches combined dispatching problem, by adopting the ant group algorithm improved, under difference is produced in batches pattern, first classify for product in batches, then propose, based on the candidate list of batch size classes, by setting up the method for candidate list for each ant, to draw the grouping scheme of each ant; Recycling pheromone updating rule, lastest imformation element, achieves successive ignition, finally obtains optimum solution; Compared to other method; Ant group algorithm, on the degree of optimization of available time and result, is that a kind of performance better optimizes the approximate data manufacturing span; Solve the problem that in real industry, job batching is produced, grouping is provided and delivered, make obtained optimum solution achieve the optimization of enterprise-wide economic benefit, reduce energy consumption, provide cost savings, improve the service level of enterprise.
2, the present invention is by carrying out Pheromone update to the optimum solution that iteration obtains each time, solves the problem focused on around this solution that search procedure is too fast; If the optimum solution obtained since first time iteration is upgraded, probably cause algorithm convergence too early; And the optimum solution of iteration has very big-difference after iteration each time each time, so upgrade the optimum solution of iteration each time, the pheromones of more solutions can be made to strengthen, thus obtain more optimal solution.
3. the present invention adopts candidate list strategy to find optimum solution; In traditional ant group algorithm, as long as volume is less than the operation of vehicle volume, can select into candidate list, so the substantial amounts of feasible solution; But in actual entrucking process, a lot of batch size is the same, if identical for volume size criticizing is classified as a class, the categorical measure criticized can never exceed the total quantity criticized, the porcelain base of same size is criticized more, batch number of candidate list is fewer, which reduces the quantity of feasible solution, effectively reduces the time of solving.
Accompanying drawing explanation
Fig. 1 is that the present invention produces dispensing span schematic diagram.
Embodiment
In the present embodiment, a kind of production distribution scheduling method based on ant group optimization, carry out modeling for volume and production time discrepant production dispensing combined dispatching problem, then solved by a kind of ant group algorithm that improves, thus obtain the prioritization scheme of a set of production distribution scheduling, greatly reduce total operating cost of target bit manufacturing enterprise with this, improve the efficiency of operation of enterprises; Simultaneously for particular problem, give practical program development scheme, make enterprise's high efficiency acquisition of energy be applicable to its optimal scheduling scheme.Specifically, be carry out as follows:
Step 1, suppose to exist n batch needs and carry out producing and providing and delivering, the volume of equipment of producing each batch is designated as B; The vehicle volume of each batch of providing and delivering is designated as V; Form one batch of set by n batch, be designated as U={b 1, b 2..., b k..., b n, b krepresent that kth is criticized; And by a kth crowd b ksize be designated as S k; By a kth crowd b kproduction time be designated as T k; A group is designated as by adding all batches of carrying out providing and delivering in same car; 1≤k≤n;
Step 2, measure-alike batch in crowd set U is divided into a class, thus obtains a classification; Be designated as W={w 1, w 2..., w z..., w a, w zrepresent z classification; Z classification w zin batch total be designated as f z; In traditional ant group algorithm, as long as volume is less than the operation of place capacity, can select into candidate list, so the substantial amounts of feasible solution.But in actual ceramic roasting process, the volume size of a lot of pottery is the same, if porcelain base identical for volume size is classified as a class, the categorical measure of porcelain base can never exceed the total quantity of porcelain base, the porcelain base of same size is more, the porcelain base number of candidate list is fewer, so just can reduce the quantity of feasible solution, effectively can reduce the time of solving.
The parameters of step 3, initialization ant group algorithm, comprising: m represents m ant, and initialization m=1; M represents ant sum, L represents iterations, and initialization L=1; L maxrepresent maximum iteration time;
Step 4, defining variable are l, and initialization l=1; A definition kth crowd b kidentifier be flag k, and initialization flag k=0;
Step 5, create l the group of m ant of the L time iteration and l the candidate list corresponding with it and n batch can be assigned in a different group by m ant of the L time iteration provide and deliver; And the vehicle fleet that m ant of the L time iteration completes grouping use all batches
Step 5.1, defining variable f;
Step 5.2, initialization z=1;
Step 5.3, initialization f=1;
Step 5.4, judge z classification w zin select the identifier flag of f crowd fwhether be 1; If 1, then represent that f batch has completed grouping, and perform step 5.5; Otherwise, by z classification w zin select f batch and join l candidate list in, and perform step 5.6;
Step 5.5, by f+1 assignment to f, and return step 5.4 and perform, until f=f ztill after, perform step 5.6;
Step 5.6, by z+1 assignment to z, and return step 5.3 and perform; Until after z=a, thus obtain l candidate list to be updated remember l candidate list to be updated in candidate criticize as { b 1', b 2' ..., b ' i..., b a'; 1≤i≤a;
Step 5.7, from candidate list to be updated crowd b that middle selection size is maximum key' joining l group is criticized as key and key is criticized b key' identifier flag ' keybe set to 1; Then from candidate list, crucial crowd b is deleted key';
Step 5.8, formula (1) is utilized to obtain m ant by l candidate list to be updated in i-th candidate criticize b i' join l group candidate probability thus obtain m ant and all candidates are criticized join l group candidate probability set
P i 1 m = &theta; i 1 &alpha; &eta; i 1 &beta; &Sigma; b i &prime; &Element; X 1 &prime; ( L ) ( m ) &theta; i 1 &alpha; &eta; i 1 &beta; b i &prime; &Element; X 1 &prime; ( L ) ( m ) 0 e l s e - - - ( 1 )
In formula (1), α is the weight of pheromones, and β is the weight of heuristic information; θ ilrepresent that i-th candidate criticizes b i' l group can be joined the expecting degree of middle dispensing, pheromones τ ij(L) represent that i-th candidate criticizes b i' criticize b with a jth candidate j' the expecting degree being arranged in the same set.Due to lot number order and operation place group number uncertain, therefore directly can not use pheromones τ ij, therefore defining variable θ (L) ilindirect utilization is carried out to pheromones; η ilrepresent and i-th candidate is criticized b i' l group can be joined the heuristic information of dispensing; And have:
&theta; i 1 = 1 | G 1 ( L ) ( m ) | &Sigma; j &Element; G 1 ( L ) ( m ) &tau; i j ( L ) - - - ( 2 )
&eta; i 1 = S i &Sigma; i = 1 n S i - - - ( 3 )
In formula (2), τ ijrepresent that i-th candidate of the L time iteration criticizes b i' join l group with jth in candidate criticize b j' between pheromones, 1≤i ≠ j≤a; S irepresent that i-th candidate criticizes b ' isize;
Step 5.9, from candidate probability set in select Maximum alternative probability corresponding Maximum alternative is criticized, and is designated as b ' max; Then Maximum alternative criticizes b ' maxsize be designated as s max;
Step 5.10, Maximum alternative is criticized b ' maxjoin l group and Maximum alternative is criticized b ' maxidentifier flag ' maxbe set to 1;
Step 5.11, vehicle volume V is deducted Maximum alternative criticize b ' maxsize s max, obtain residue vehicle volume, be designated as
Step 5.12, according to residue vehicle volume from l candidate list to be updated middle deletion size is greater than residue vehicle volume candidate criticize; Thus obtain l the candidate list upgraded
Step 5.13, acquisition Maximum alternative criticize b ' maxcorresponding classification, is designated as w max;
Step 5.14, judge that Maximum alternative criticizes b ' maxat corresponding classification w maxin whether be f zindividual batch; If so, then from l the candidate list upgraded middle deletion Maximum alternative criticizes b ' max; Otherwise, from l the candidate list upgraded middle deletion Maximum alternative criticizes b ' max, and Maximum alternative is criticized b ' maxcorresponding classification w maxin f maxcriticize l the candidate list joining renewal for+1 in, thus obtain l the candidate list again upgraded
Step 5.15, with l the candidate list again upgraded as l candidate list to be updated and return the execution of step 5.8 order, until l candidate list to be updated till sky, by l the group of m ant of the L time iteration fill it up with; Thus obtain l the group of m ant of the L time iteration distribution project;
Whether step 5.16, the identifier judging n batch are all 1, if be all 1, have then represented that m ant of the L time iteration is to the individual distribution criticized of n; And l assignment is given otherwise, by l+1 assignment to l, and return the execution of step 5 order.
L the candidate list upgraded in, if i-th candidate criticizes b i' criticize b with a jth candidate j' meet S i< S jand S it i> S jt j, select i-th candidate to criticize b i' add current group to criticize b than selecting a jth candidate j' can more free space be reduced, and select i-th candidate to criticize b i' the residual capacity of latter current group is larger, l candidate list in optional lot number also more, therefore select i-th candidate criticize b i' add current group more excellent.
Step 6, by m+1 assignment to m, and return step 5 and perform, until m=M, thus the vehicle fleet set that all M the ants obtaining the L time iteration complete grouping use all batches
Step 7, from vehicle fleet set in choose the locally optimal solution of minimum value as the L time iteration, be designated as π l;
Step 8, i-th candidate utilizing formula (4) to upgrade the L time iteration criticize b i' join l group with jth in candidate criticize b j' between pheromones thus obtain the pheromones of the L+1 time iteration
In formula (4), ρ represents the evaporation rate of pheromones; m ij(L) represent that in the L time iteration, i-th candidate criticizes b i' join l group with jth in candidate criticize b j' be assigned to the number of times of same group; And have:
If the optimum solution obtained since first time iteration is upgraded, probably cause too fast the focusing on this and separate around of search procedure, make algorithm convergence too early; And the optimum solution of iteration has very big-difference after iteration each time each time, so upgrade the optimum solution of iteration each time, the pheromones of more solutions can be made to strengthen.Also rotation strategy can be adopted to upgrade, namely Pheromone update is carried out to the optimum solution that iteration obtains each time, then often through corresponding iteration, to the renewal of the optimum solution obtained since first time through row primary information element.
Step 9, formula (6) and formula (7) is utilized to judge whether meet pheromone concentration and limit interval [τ min, τ max], if meet, then retain the pheromones of the L+1 time iteration and perform step 11; Otherwise, perform step 10:
&tau; m a x &le; 1 ( 1 - &rho; ) f ( &pi; * ) - - - ( 6 )
&tau; min = &tau; m a x ( 1 - 0.05 a ) ( a / 2 - 1 ) 0.05 a - - - ( 7 )
In formula (6) and formula (7), π *represent the minimum value in current acquired all locally optimal solutions;
If step 10 then will assignment is given if then will assignment is given the concentration limits of pheromones fixes on by ant group algorithm between, with the difference between the pheromones reducing feasible solution.
Step 11; By L+1 assignment to L, judge L < L maxwhether set up, if set up, return step 4 and perform, otherwise complete L maxsecondary iteration, and obtain globally optimal solution π best, be L maxthe minimum value of all locally optimal solutions in secondary iteration; With globally optimal solution π bestcorresponding distribution project as optimum distribution project, in batches with delivery process as shown in Figure 1;
Step 12, batch will carry out descending sort according to the production time in each group in optimum distribution project, the ranking results of acquisition as series-produced order, thus obtains Optimal Production and dispensing combined dispatching scheme.

Claims (2)

1., based on a production distribution scheduling method for ant group optimization, it is characterized in that carrying out as follows:
Step 1, suppose to exist n batch needs and carry out producing and providing and delivering, the volume of equipment of producing each batch is designated as B; The vehicle volume of each batch of providing and delivering is designated as V; Form one batch of set by described n batch, be designated as U={b 1, b 2..., b k..., b n, b krepresent that kth is criticized; And by a kth crowd b ksize be designated as S k; By a kth crowd b kproduction time be designated as T k; A group is designated as by adding all batches of carrying out providing and delivering in same car; 1≤k≤n;
Step 2, measure-alike batch in described crowd of set U is divided into a class, thus obtains a classification; Be designated as W={w 1, w 2..., w z..., w a, w zrepresent z classification; Described z classification w zin batch total be designated as f z;
The parameters of step 3, initialization ant group algorithm, comprising: m represents m ant, and initialization m=1; M represents ant sum, L represents iterations, and initialization L=1; L maxrepresent maximum iteration time;
Step 4, defining variable are l, and initialization l=1; A definition kth crowd b kidentifier be flag k, and initialization flag k=0;
Step 5, create l the group of m ant of the L time iteration and l the candidate list corresponding with it and described n batch can be assigned in a different group by m ant of the L time iteration provide and deliver; And the vehicle fleet that m ant of the L time iteration completes grouping use all batches
Step 6, by m+1 assignment to m, and return step 5 and perform, until m=M, thus the vehicle fleet set that all M the ants obtaining the L time iteration complete grouping use all batches { N u m ( L ) ( 1 ) , N u m ( L ) ( 2 ) , ... , N u m ( L ) ( m ) , ... , N u m ( L ) ( M ) } ;
Step 7, from described vehicle fleet set in choose the locally optimal solution of minimum value as the L time iteration, be designated as π l;
Step 8, i-th candidate utilizing formula (1) to upgrade the L time iteration criticize b i' join l group with jth in candidate criticize b j' between pheromones τ ij, thus obtain the pheromones τ of the L+1 time iteration (L) ij(L+1):
&tau; i j ( L + 1 ) = ( 1 - &rho; ) &tau; i j ( L ) + m i j ( L ) &dtri; &tau; i j - - - ( 1 )
In formula (1), ρ represents the evaporation rate of pheromones; m ij(L) represent that in the L time iteration, i-th candidate criticizes b i' join l group with jth in candidate criticize b j' be assigned to the number of times of same group; And have:
Step 9, formula (3) and formula (4) is utilized to judge τ ij(L+1) whether meet pheromone concentration and limit interval [τ min, τ max], if meet, then retain the pheromones τ of the L+1 time iteration ij, and perform step 11 (L+1); Otherwise, perform step 10:
&tau; m a x &le; 1 ( 1 - &rho; ) f ( &pi; * ) - - - ( 3 )
&tau; m i n = &tau; m a x ( 1 - 0.05 a ) ( a / 2 - 1 ) 0.05 a - - - ( 4 )
In formula (3) and formula (4), π *represent the minimum value in current acquired all locally optimal solutions;
If step 10 τ ij(L+1)>=τ max, then by τ maxassignment is to τ ij(L+1); If τ ij(L+1)≤τ min, then by τ minassignment is to τ ij(L+1);
Step 11; By L+1 assignment to L, judge L < L maxwhether set up, if set up, return step 4 and perform, otherwise complete L maxsecondary iteration, and obtain globally optimal solution π best, be L maxthe minimum value of all locally optimal solutions in secondary iteration; With globally optimal solution π bestcorresponding distribution project is as optimum distribution project;
Step 12, batch will carry out descending sort according to the production time in each group in optimum distribution project, the ranking results of acquisition as series-produced order, thus obtains Optimal Production and dispensing combined dispatching scheme.
2. the production scheduling method of the porcelain calcine technology based on ant group optimization according to claim 1, is characterized in that, in described step 5, m ant of the L time iteration is assigned to described n batch in different groups as follows to provide and deliver:
Step 5.1, defining variable f;
Step 5.2, initialization z=1;
Step 5.3, initialization f=1;
Step 5.4, judge described z classification w zin select the identifier flag of f crowd fwhether be 1; If 1, then represent that f batch has completed grouping, and perform step 5.5; Otherwise, by z classification w zin select f batch and join described l candidate list in, and perform step 5.6;
Step 5.5, by f+1 assignment to f, and return step 5.4 and perform, until f=f ztill after, perform step 5.6;
Step 5.6, by z+1 assignment to z, and return step 5.3 and perform; Until after z=a, thus obtain l candidate list to be updated remember described l candidate list to be updated in candidate criticize as { b 1', b 2' ..., b i' ..., b a'; 1≤i≤a;
Step 5.7, from described candidate list to be updated crowd b that middle selection size is maximum key' joining described l group is criticized as key and key is criticized b key' identifier flag ' keybe set to 1; Then from candidate list, crucial crowd b is deleted key';
Step 5.8, formula (5) is utilized to obtain m ant by described l candidate list to be updated in i-th candidate criticize b i' join l group candidate probability thus obtain m ant and all candidates are criticized join l group candidate probability set
P i l m = &theta; i l &alpha; &eta; i l &beta; &Sigma; b i &prime; &Element; X l &prime; ( L ) ( m ) &theta; i l &alpha; &eta; i l &beta; b i &prime; &Element; X l &prime; ( L ) ( m ) 0 e l s e - - - ( 5 )
In formula (5), α is the weight of pheromones, and β is the weight of heuristic information; θ ilrepresent that i-th candidate criticizes b i' l group can be joined the expecting degree of middle dispensing; η ilrepresent and i-th candidate is criticized b i' l group can be joined the heuristic information of dispensing; And have:
&theta; i l = 1 | G l ( L ) ( m ) | &Sigma; j &Element; G l ( L ) ( m ) &tau; i j ( L ) - - - ( 6 )
&eta; i l = S i &Sigma; i = 1 n S i - - - ( 7 )
In formula (6), τ ijrepresent that i-th candidate of the L time iteration criticizes b i' join l group with jth in candidate criticize b j' between pheromones, 1≤i ≠ j≤a; S irepresent that i-th candidate criticizes b ' isize;
Step 5.9, from described candidate probability set in select Maximum alternative probability corresponding Maximum alternative is criticized, and is designated as b ' max; Then described Maximum alternative criticizes b ' maxsize be designated as s max;
Step 5.10, described Maximum alternative is criticized b ' maxjoin described l group and Maximum alternative is criticized b ' maxidentifier flag ' maxbe set to 1;
Step 5.11, described vehicle volume V is deducted described Maximum alternative criticize b ' maxsize s max, obtain residue vehicle volume, be designated as
Step 5.12, according to described residue vehicle volume from described l candidate list to be updated middle deletion size is greater than described residue vehicle volume candidate criticize; Thus obtain l the candidate list upgraded
Step 5.13, obtain described Maximum alternative and criticize b ' maxcorresponding classification, is designated as w max;
Step 5.14, judge that described Maximum alternative criticizes b ' maxat corresponding classification w maxin whether be f zindividual batch; If so, then from l the candidate list upgraded the described Maximum alternative of middle deletion criticizes b ' max; Otherwise, from l the candidate list upgraded the described Maximum alternative of middle deletion criticizes b ' max, and described Maximum alternative is criticized b ' maxcorresponding classification w maxin f maxcriticize l the candidate list joining described renewal for+1 in, thus obtain l the candidate list again upgraded
Step 5.15, with described l the candidate list again upgraded as l candidate list to be updated and return the execution of step 5.8 order, until l candidate list to be updated till sky, by l the group of m ant of the L time iteration fill it up with; Thus obtain l the group of m ant of the L time iteration distribution project;
Whether step 5.16, the identifier judging n batch are all 1, if be all 1, have then represented that m ant of the L time iteration is to the individual distribution criticized of described n; And l assignment is given otherwise, by l+1 assignment to l, and return the execution of step 5 order.
CN201510897042.4A 2015-12-04 2015-12-04 A kind of production distribution scheduling method based on ant group algorithm Active CN105528675B (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN201510897042.4A CN105528675B (en) 2015-12-04 2015-12-04 A kind of production distribution scheduling method based on ant group algorithm

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN201510897042.4A CN105528675B (en) 2015-12-04 2015-12-04 A kind of production distribution scheduling method based on ant group algorithm

Publications (2)

Publication Number Publication Date
CN105528675A true CN105528675A (en) 2016-04-27
CN105528675B CN105528675B (en) 2016-11-16

Family

ID=55770888

Family Applications (1)

Application Number Title Priority Date Filing Date
CN201510897042.4A Active CN105528675B (en) 2015-12-04 2015-12-04 A kind of production distribution scheduling method based on ant group algorithm

Country Status (1)

Country Link
CN (1) CN105528675B (en)

Cited By (7)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN106056253A (en) * 2016-06-06 2016-10-26 合肥工业大学 Multi-objective ant colony algorithm for distribution disruption management problem
CN106970604A (en) * 2017-05-15 2017-07-21 安徽大学 A kind of multiple target Job Scheduling algorithm based on ant group algorithm
CN108563200A (en) * 2018-04-03 2018-09-21 安徽大学 A kind of Job Scheduling method and device of the multiple target based on ant group algorithm
CN108665139A (en) * 2018-04-03 2018-10-16 安徽大学 A kind of Job Scheduling method and device based on ant group algorithm
CN109254566A (en) * 2018-07-06 2019-01-22 昆明理工大学 A kind of Optimization Scheduling of multiple batches of aluminum component antique copper production
CN111007821A (en) * 2019-12-20 2020-04-14 韩山师范学院 Workshop scheduling method with batch processing time being limited by total weight and maximum size
CN113011644A (en) * 2021-03-11 2021-06-22 华南理工大学 Smart city dynamic cold-chain logistics scheduling method based on ant colony optimization algorithm

Citations (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO2004008371A1 (en) * 2002-07-10 2004-01-22 Institut Suisse De Bioinformatique Peptide and protein identification method
CN104700251A (en) * 2015-03-16 2015-06-10 华南师范大学 Maximum-minimum ant colony optimization method and maximum-minimum ant colony optimization system for solving vehicle scheduling problem
CN104914835A (en) * 2015-05-22 2015-09-16 齐鲁工业大学 Flexible job-shop scheduling multi-objective method

Patent Citations (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO2004008371A1 (en) * 2002-07-10 2004-01-22 Institut Suisse De Bioinformatique Peptide and protein identification method
CN104700251A (en) * 2015-03-16 2015-06-10 华南师范大学 Maximum-minimum ant colony optimization method and maximum-minimum ant colony optimization system for solving vehicle scheduling problem
CN104914835A (en) * 2015-05-22 2015-09-16 齐鲁工业大学 Flexible job-shop scheduling multi-objective method

Non-Patent Citations (3)

* Cited by examiner, † Cited by third party
Title
张志霞等: "基于改进蚁群算法的运输调度规划", 《公路交通科技》 *
李秀娟等: "蚁群优化算法在物流车辆调度系统中的应用", 《计算机应用》 *
祝文康等: "基于改进蚁群算法的物流车辆调度问题研究", 《江南大学学报(自然科学版)》 *

Cited By (12)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN106056253A (en) * 2016-06-06 2016-10-26 合肥工业大学 Multi-objective ant colony algorithm for distribution disruption management problem
CN106056253B (en) * 2016-06-06 2021-04-23 合肥工业大学 Multi-target ant colony algorithm for distribution interference management problem
CN106970604A (en) * 2017-05-15 2017-07-21 安徽大学 A kind of multiple target Job Scheduling algorithm based on ant group algorithm
CN106970604B (en) * 2017-05-15 2019-04-30 安徽大学 A kind of multiple target Job Scheduling algorithm based on ant group algorithm
CN108563200A (en) * 2018-04-03 2018-09-21 安徽大学 A kind of Job Scheduling method and device of the multiple target based on ant group algorithm
CN108665139A (en) * 2018-04-03 2018-10-16 安徽大学 A kind of Job Scheduling method and device based on ant group algorithm
CN108563200B (en) * 2018-04-03 2021-02-09 安徽大学 Multi-target workpiece scheduling method and device based on ant colony algorithm
CN108665139B (en) * 2018-04-03 2021-12-17 安徽大学 Workpiece scheduling method and device based on ant colony algorithm
CN109254566A (en) * 2018-07-06 2019-01-22 昆明理工大学 A kind of Optimization Scheduling of multiple batches of aluminum component antique copper production
CN111007821A (en) * 2019-12-20 2020-04-14 韩山师范学院 Workshop scheduling method with batch processing time being limited by total weight and maximum size
CN113011644A (en) * 2021-03-11 2021-06-22 华南理工大学 Smart city dynamic cold-chain logistics scheduling method based on ant colony optimization algorithm
WO2022188388A1 (en) * 2021-03-11 2022-09-15 华南理工大学 Smart city dynamic cold-chain logistics scheduling method based on ant colony optimization algorithm

Also Published As

Publication number Publication date
CN105528675B (en) 2016-11-16

Similar Documents

Publication Publication Date Title
CN105528675A (en) Production distribution scheduling method based on ant colony algorithm
CN105956689B (en) A kind of transport and procreative collaboration dispatching method based on Modified particle swarm optimization
CN102855412B (en) A kind of wind power forecasting method and device thereof
CN103413209B (en) Many client many warehouses logistics distribution routing resources
CN103400203B (en) A kind of electric automobile charging station load forecasting method based on support vector machine
CN111325483B (en) Electric bus scheduling method based on battery capacity prediction
CN102222268A (en) Method for scheduling flow shop based on multi-swarm hybrid particle swarm algorithm
CN110598941A (en) Bionic strategy-based dual-target scheduling method for particle swarm optimization manufacturing system
CN106970604B (en) A kind of multiple target Job Scheduling algorithm based on ant group algorithm
CN105809263A (en) Taxi reserving method and system based on multi-objective optimization
CN103235743B (en) A kind of based on decomposing and the multiple goal test assignment dispatching method of optimum solution follow-up strategy
CN103744733A (en) Method for calling and configuring imaging satellite resources
CN104050324A (en) Mathematical model construction method and solving method for single-star task planning problem
CN106156895A (en) A kind of charging electric vehicle load forecasting method based on fuzzy C-means clustering with substep grid search support vector regression
CN104077634B (en) active-reactive type dynamic project scheduling method based on multi-objective optimization
CN114039370B (en) Electric automobile and intelligent charging and discharging station resource optimization method based on V2G mode
CN106980308B (en) The dismantling of remanufacturing system, the integrated dispatching method for pre-processing and reassembling
CN104362681A (en) Island micro-grid capacity optimal-configuration method considering randomness
CN104050544A (en) System for generating workshop working procedure plan and achieving method thereof
CN111650914A (en) Optimal scheduling method for assembly process of automobile power battery
CN104978605A (en) Large-scale wind power prediction system and method based on deep learning network
CN104504453A (en) Optimal scheduling method for multi-objective optimization military transportation process
CN105160598A (en) Power grid service classification method based on improved EM algorithm
CN110928261A (en) Distributed estimation scheduling method and system for distributed heterogeneous flow shop
CN105427054B (en) A kind of processing dispatching method of porcelain calcine technology based on ant group optimization

Legal Events

Date Code Title Description
C06 Publication
PB01 Publication
C10 Entry into substantive examination
SE01 Entry into force of request for substantive examination
C14 Grant of patent or utility model
GR01 Patent grant