CN107992999B - Multi-subject scheduling method oriented to personalized production environment - Google Patents

Multi-subject scheduling method oriented to personalized production environment Download PDF

Info

Publication number
CN107992999B
CN107992999B CN201711200199.2A CN201711200199A CN107992999B CN 107992999 B CN107992999 B CN 107992999B CN 201711200199 A CN201711200199 A CN 201711200199A CN 107992999 B CN107992999 B CN 107992999B
Authority
CN
China
Prior art keywords
negotiation
user
self
scheduling
autonomous
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.)
Active
Application number
CN201711200199.2A
Other languages
Chinese (zh)
Other versions
CN107992999A (en
Inventor
孙树栋
吴自高
肖世昌
俞少华
杨宏安
王军强
安凯
张家豪
陈丽珍
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.)
Northwestern Polytechnical University
Original Assignee
Northwestern Polytechnical University
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 Northwestern Polytechnical University filed Critical Northwestern Polytechnical University
Priority to CN201711200199.2A priority Critical patent/CN107992999B/en
Publication of CN107992999A publication Critical patent/CN107992999A/en
Application granted granted Critical
Publication of CN107992999B publication Critical patent/CN107992999B/en
Active legal-status Critical Current
Anticipated expiration legal-status Critical

Links

Images

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

Landscapes

  • Business, Economics & Management (AREA)
  • Human Resources & Organizations (AREA)
  • Engineering & Computer Science (AREA)
  • Strategic Management (AREA)
  • Entrepreneurship & Innovation (AREA)
  • Economics (AREA)
  • Operations Research (AREA)
  • Game Theory and Decision Science (AREA)
  • Development Economics (AREA)
  • Marketing (AREA)
  • Educational Administration (AREA)
  • Quality & Reliability (AREA)
  • Tourism & Hospitality (AREA)
  • Physics & Mathematics (AREA)
  • General Business, Economics & Management (AREA)
  • General Physics & Mathematics (AREA)
  • Theoretical Computer Science (AREA)
  • Management, Administration, Business Operations System, And Electronic Commerce (AREA)

Abstract

The invention provides a multi-main-body scheduling method facing to an individualized production environment, wherein a resource party and each user are made to be a scheduling main body with an autonomous behavior decision capability, and an initial scheduling scheme is randomly generated by the resource main body and submitted to each user main body to start multi-main-body scheduling; then the resource autonomous body and the user autonomous body carry out scheduling negotiation through an alternative proposal, and when the user autonomous body and the resource autonomous body fail to reach the negotiation, the user autonomous body with conflict starts the alternative proposal to carry out scheduling negotiation; if the negotiation of the resource autonomous body and the user autonomous body is completely achieved, outputting a multi-body scheduling scheme with consistent negotiation, otherwise, adopting a preset arbitration rule to eliminate the rest conflicts and generating a final multi-body scheduling scheme. The method gives full play to the autonomy of resources and each user, can fully meet the target requirements of each main body, and improves the group satisfaction degree of result scheduling.

Description

Multi-subject scheduling method oriented to personalized production environment
Technical Field
The invention relates to the field of production system performance optimization, in particular to a multi-agent scheduling method oriented to an individualized production environment.
Background
The document "A hybrid algorithm based on a new design structure evaluation method for job shop scheduling, computers & Industrial Engineering,2015,88: 417-42" discloses a production system performance optimization method based on a hybrid scheduling algorithm. The method comprises the steps of firstly, carrying out global optimization on the scheduled maximum completion time by using a particle swarm algorithm, and then carrying out local optimization by using a variable neighborhood search algorithm so as to minimize the scheduled maximum completion time. The scheduling scheme obtained by the method has smaller maximum completion time, so that the production efficiency of manufacturing enterprises can be improved, the utilization rate of production resources is improved, and the production cost is reduced.
In the large-scale production mode, a manufacturing enterprise generally combines and processes the demands of different users without distinguishing, and then optimizes and schedules the demands with the related targets (such as maximum completion time) of a resource side so as to reduce the manufacturing cost of the enterprise and improve the production efficiency. However, with increasingly global market competition and rapid development of manufacturing informatization, the traditional enterprise operation mode is rapidly shifted to personalized customized production from a large-scale production mode. Under the personalized production environment, each user has respective customized task and corresponding differentiated target, and at the moment, if a resource-side-dominant scheduling control method is still adopted, the differentiated target requirements of the users are difficult to meet, which affects the group satisfaction of the users and reduces the industry competitiveness of manufacturing enterprises.
In order to solve the scheduling control problem in the personalized production environment, the optimization target to be scheduled is shifted from the original target mainly considering resource correlation to the target considering resource and differentiation targets of each user; the main body of the scheduling decision is changed from a single main body of the resource side into a multi-main body formed by the resource side and multiple users together. Therefore, a novel scheduling mode, namely multi-agent scheduling facing to the personalized production environment is generated.
Disclosure of Invention
The invention provides a multi-agent scheduling method oriented to an individualized production environment, aiming at the problem that the existing scheduling method mainly based on a resource party is difficult to meet the differentiated target requirements of multiple users in the individualized production environment. The method comprises the steps that a resource party and each user are enabled to be a scheduling subject (namely a resource subject and a user subject) with an autonomous behavior decision capability, and an initial scheduling scheme is randomly generated by the resource subject and submitted to each user subject to start multi-subject scheduling; then the resource autonomous body and the user autonomous body carry out scheduling negotiation through alternative proposal (the user autonomous body receives the proposal of the resource autonomous body, then the user autonomous body modifies the proposal and feeds back the modified proposal to the resource autonomous body, and then the resource autonomous body generates a new proposal and submits the new proposal to each user autonomous body), and when the user autonomous body and the resource autonomous body fail to reach negotiation, the user autonomous body with conflict starts the alternative proposal to carry out scheduling negotiation; if the negotiation of the resource autonomous body and the user autonomous body is completely achieved, outputting a multi-body scheduling scheme with consistent negotiation, otherwise, adopting a preset arbitration rule to eliminate the rest conflicts and generating a final multi-body scheduling scheme. The method gives full play to the autonomy of resources and each user, can fully meet the target requirements of each main body, and improves the group satisfaction degree of result scheduling.
The technical scheme of the invention is as follows:
the multi-agent scheduling method facing the personalized production environment is characterized in that: the method comprises the following steps:
step 1, initializing multi-agent scheduling:
(a) each user autonomous entity establishes communication with a resource autonomous entity to determine a set of autonomous entities { A } that participate in multi-entity scheduling0,A1,A2,...,Ai,...,AnIn which A is0Represents a resource autonomous body, AiN represents the respective user's own subject;
(b) resource autonomous body A0With each user's own body Ai1, 2.. n to determine a multi-master scheduled process task set T ═ T ·1,T2,...,Ti,...,TnWhere T isiFor users to self-body AiThe processing task of (2);
(c) respective main body AiN sets a respective maximum scheduling objective function O, 0,1,2iI is 0,1, 2.., n, and initializes the respective negotiation policy S according to equation (1)i
Figure BDA0001482585410000021
In the formula (I), the compound is shown in the specification,
Figure BDA0001482585410000022
is a self body AiAt negotiated time tiThe objective function value of time, β i, is the subject AiThe negotiation policy adjustment factor of (2) is,
Figure BDA0001482585410000023
is a self body AiThe value of the ideal objective function of (c),
Figure BDA0001482585410000024
is a self body AiThe minimum value of the objective function that is acceptable,
Figure BDA0001482585410000025
is a self body AiA negotiation deadline of (2);
(d) each user's own agent Ai1, 2.. n initializes its own acceptance condition C by equation (2)i,i=1,2,...,n;
Figure BDA0001482585410000026
In the formula, pii,jIs a self body AiReceived from the self-body AjScheduling proposal of (1), Oii,j) Is a self body AiIn scheduling proposal pii,jThe objective function value of;
(e) respective main body AiN, initializing respective negotiation conditions N according to equation (3)i,i=0,1,2,...,n;
Figure BDA0001482585410000031
Step 2, starting multi-agent scheduling:
resource autonomous body A0Initializing a negotiation constraint set as empty R { }, then taking a multi-main-body scheduling processing task set T as a scheduling object, and generating a scheduling scheme pi in a mode shown by a formula (4)0And submits the scheduling scheme as an initial proposal to an individual user main body Ai1,2, n to start multi-subject scheduling;
Figure BDA0001482585410000032
step 3, starting the negotiation information on-line learning of the negotiation object:
when the negotiation object is autonomous AjAt the time of starting from the body AjAfter submitting a new proposal, updating a historical proposal information set, and then optimizing a negotiation strategy model shown in formula (5) by using a random gradient descent method by taking the historical proposal and corresponding proposal time as input so as to learn the autonomous agent AjNegotiation strategy Sj(ii) a From subject A obtained by learningjApproximate negotiation strategy of
Figure BDA0001482585410000033
Obtain a subject AjEstimate of the value of the ideal objective function
Figure BDA0001482585410000034
Estimate of minimum acceptable objective function value
Figure BDA0001482585410000035
And an estimate of the negotiation deadline
Figure BDA0001482585410000036
Figure BDA0001482585410000037
In the formula (I), the compound is shown in the specification,
Figure BDA0001482585410000038
is a self body AjAt negotiated time tjAn estimate of the objective function value of the proposal at time,
Figure BDA00014825854100000311
is a self body AjAn estimate of the negotiated policy adjustment factor of aj,bj,cjIs a constant parameter;
step 4, the user self-body and the resource self-body negotiate and schedule: the user self-body and the resource self-body finally obtain a multi-body scheduling scheme with multi-body negotiation consistency through continuous alternate proposal and modification proposal:
step 4.1, making a user self-body autonomous behavior decision:
(a) when the user is self-owned AiReceiving a message from a resource autonomous agent A0Scheduling proposal pii,0Thereafter, the resource self-agent A is learned through step 20Negotiation information of
Figure BDA0001482585410000039
Synthetic resource autonomous body A0Negotiation information X of0And user-autonomous body AiNegotiation information of
Figure BDA00014825854100000310
User-owned entity AiThe formula (6) is adopted to modify the negotiation strategy adjustment factor, and then the formula (1) is adopted to adjust the self negotiation strategy Si
βi=βi+gi(X0,Xi) (6)
In the formula, gi(.) is the user's own principal AiAdjusting a function by adopting a negotiation strategy;
(b) user-owned entity AiUsing the adjusted negotiation strategy SiUpdating itself at the currently negotiated time tiObjective function value of time proposal
Figure BDA0001482585410000041
Adjusting the self-acceptance condition CiAnd negotiation condition NiAnd controlling the negotiation process according to the following steps: if C is presentiNotify resource autonomous A if 10Accepting the current proposal and completing the negotiation, otherwise calculating Ni(ii) a If N is presentiIf 0, the resource self-body A is informed0Refusing current proposal and abandoning negotiation, otherwise user self-body AiTurning to step (c) and continuing to the resource self-body A0Proposing a proposal;
(c) strip satisfying negotiation constraint set RUnder the article, the user is self-body AiAccording to formula (7), with resources from subject A0Is proposed pii,0Based on the obtained target value, local search algorithm is adopted to obtain the target value satisfying itself
Figure BDA0001482585410000045
And then propose the scheme as a feedback scheme pi0,iSubmission to resource autonomous agent A0
Figure BDA0001482585410000042
Step 4.2, making a resource autonomous behavior decision:
(a) the resource autonomous body waits for and receives feedback information of all the user autonomous bodies which do not finish the negotiation: if the user is from principal AiReceiving the proposal, the resource is from the subject A0Recording user self-body AiCompleting negotiation and updating a negotiation constraint set R; if the user is from principal AiRefusing proposal, then the resource is from subject A0Recognition and user-autonomous body AiConflicting user-autonomous agents AjThen, turning to step 5; if the user is from principal AiFeedback proposal pi0,iThen go to step 2 to learn the user's own body AiNegotiation information of
Figure BDA0001482585410000043
(b) Resource autonomous body A0Judging whether the multi-subject scheduling is completed: calculating the judgment condition C according to the formula (8)0If C is present0If the result is 1, the multi-agent scheduling is finished and the step 6 is carried out, otherwise, the step (c) is carried out to continue the negotiation;
Figure BDA0001482585410000044
in the formula, BiFor users to self-body AiNegotiation status flag of (1): b isi0 stands for abort negotiation, BiWith 1 standing for continued negotiation, Bi2 stands forCompleting the negotiation;
(c) synthetic resource autonomous body A0Self negotiation information X0And negotiation information { X ] of each user-owned entity that does not complete negotiation1,X2,.., the resource is from principal A0The formula (9) is adopted to modify the adjustment factor of the negotiation strategy, and the formula (1) is substituted to update the self negotiation strategy S0
β0=β0+g0(X0,X1,X2,...) (9)
In the formula, g0(.) is a self-owned agent A0Adjusting a function by adopting a negotiation strategy;
(d) resource autonomous body A0Using the adjusted negotiation strategy S0Updating itself at the currently negotiated time t0Objective function value of time proposal
Figure BDA0001482585410000055
Adjusting self negotiation condition N according to formula (3)0To control the negotiation process: if N is presentiIf 0, then the resource is from principal A0Abandoning to continue the multi-subject scheduling and turning to step 6, otherwise, the resource self-subject A meets the condition of the negotiation constraint set R0Amending the proposal and making a new scheduling scheme pi0Satisfy the current objective function value of the self
Figure BDA0001482585410000056
Then scheduling scheme pi0Submitting the data to all the user autonomous bodies which do not finish the negotiation;
step 5, the user self-body AiUser-autonomous body A with scheduling conflictjAnd (3) negotiation scheduling:
step 5.1, user-independent agent AjJudging whether to accept the user self-body AiThe negotiation request of (2); if the negotiation is accepted, go to step 5.2, otherwise the user is self-owned AjRefusing and user self-body AiThe scheduling negotiation is transferred to step 5.3;
step 5.2, user's own agent AiWith the user's own body AjScheduling negotiation:
(a) user-owned entity AjAnd (3) autonomous behavior decision making: user-owned entity AjReceiving from a user self-body AiScheduling proposal pij,iThereafter, the user-independent entity A is learned through step 2iNegotiation information of
Figure BDA0001482585410000051
And updating the negotiation strategy S of the selfjAdjusting the self-acceptance condition CjAnd negotiation condition Nj(ii) a If the proposal is continued, the user self-body A is used under the condition that the negotiation constraint set R is satisfiediIs proposed pij,iOn the basis of which the user is self-owned AjObtaining target value satisfying itself by local search algorithm
Figure BDA0001482585410000052
And then propose the scheme as a feedback scheme pii,jSubmitted to the user's autonomous body AiOtherwise, the user is self-owned AjFinish negotiation and go to step 5.3;
(b) user-owned entity AiAnd (3) autonomous behavior decision making: user-owned entity AiReceiving from a user self-body AjFeedback scheduling proposal pii,jThereafter, the user-independent entity A is learned through step 2jNegotiation information of
Figure BDA0001482585410000053
And updating the negotiation strategy S of the selfiAdjusting the self-acceptance condition CiAnd negotiation condition Ni(ii) a If the proposal is continued, the user self-body A is used under the condition that the negotiation constraint set R is satisfiedjFeedback proposal ofi,jOn the basis of which the user is self-owned AiObtaining target value satisfying itself by local search algorithm
Figure BDA0001482585410000054
And then the scheme is taken as a new proposal pij,iSubmitted to the user's autonomous body AjOtherwise, the user is self-owned AiFinish negotiation and go to step 5.3;
step 5.3, turning to step (a) of step 4.2, feeding back a negotiation result to the resource autonomous body: if the user is from principal AiAnd a user-autonomous body AjIf the negotiation is reached, then the agreed scheduling scheme pi will be reachedi,jAs a user self-body AiAnd a user-autonomous body AjIs submitted to the resource autonomous body A0(ii) a Otherwise the user is self-owned AiNotification of resource autonomous body A0Abandoning negotiation and accepting the final multi-subject scheduling scheme;
step 6, if the multi-agent scheduling is finished, outputting a scheduling scheme pi with the negotiation consistency between the resource autonomous agent and all the user autonomous agents0,1,...,m(ii) a Otherwise, scheduling the processing tasks with the negotiation not being consistent except the negotiation constraint set R by adopting a preset arbitration rule to generate a final multi-main-body scheduling scheme pi0,1,...,mAnd output.
Advantageous effects
The invention has the beneficial effects that: compared with the traditional scheduling which takes resources as the only scheduling main body, the method ensures that the resources and all users have the capability of autonomous scheduling decision at the same time, so that the scheduling decision is converted from the traditional scheduling which takes the resources as a single main body into the multi-main scheduling which takes the resources and all users to participate together, thereby adapting to the differentiated target requirements of the resources and all users in the personalized production environment; users and resources can fully meet self targets through negotiation scheduling based on alternative proposals, and meanwhile, all main bodies can fully know negotiation objects through online learning, so that self negotiation strategies are more reasonably adjusted, and scheduling decisions which are beneficial to meeting self targets and achieving negotiation consistency are made; when the users and the resources can not be directly agreed, the space for conflict resolution can be fully excavated through negotiation scheduling between the users so as to improve a multi-agent scheduling scheme; if each subject finally fails to reach the agreed multi-subject scheme, the arbitration decision will generate the final scheme according to the established rule, and since it is uncertain whether the scheme can meet the target of each subject, the subjects will be motivated to actively participate in the negotiation and rationally make the scheduling decision, thereby reaching the agreed multi-subject scheduling scheme as much as possible. In a word, the multi-subject scheduling provided by the invention can exert the autonomy of resources and each user, fully meet the target requirements of each subject and improve the group satisfaction degree of result scheduling.
Additional aspects and advantages of the invention will be set forth in part in the description which follows and, in part, will be obvious from the description, or may be learned by practice of the invention.
Drawings
The above and/or additional aspects and advantages of the present invention will become apparent and readily appreciated from the following description of the embodiments, taken in conjunction with the accompanying drawings of which:
FIG. 1 is a block diagram of the multi-agent scheduling method for personalized production environment of the present invention.
Fig. 2 is a flow chart of inter-autonomous body negotiation scheduling of the method of the present invention.
FIG. 3 is a flow chart of the autonomous behavioral decision of the method of the present invention.
Detailed Description
The following detailed description of embodiments of the invention is intended to be illustrative, and not to be construed as limiting the invention.
Referring to fig. 1-3, the specific steps of the multi-agent scheduling method for the personalized production environment of the present invention are as follows:
step 1, initializing multi-agent scheduling:
(a) each user autonomous entity establishes communication with a resource autonomous entity to determine a set of autonomous entities { A } that participate in multi-entity scheduling0,A1,A2,...,Ai,...,AnIn which A is0Represents a resource autonomous body, AiN represents the respective user's own subject;
(b) resource autonomous body A0With each user's own body Ai1,2, n to determine a multi-master scheduled process task set T ═ T · of multi-master scheduling1,T2,...,T1,...,TnWhere T isiFor users to self-body AiThe processing task of (2);
(c) resource autonomous body A0And each user's own body AiN sets a respective maximum scheduling objective function OiN and initializing the respective negotiation strategy S according to equation (1)i
Figure BDA0001482585410000071
In the formula (I), the compound is shown in the specification,
Figure BDA0001482585410000072
is a self body AiAt negotiated time tiObjective function value of time, betaiIs a self body AiThe negotiation policy adjustment factor of (2) is,
Figure BDA0001482585410000073
is a self body AiThe value of the ideal objective function of (c),
Figure BDA0001482585410000074
is a self body AiThe minimum value of the objective function that is acceptable,
Figure BDA0001482585410000075
is a self body AiA negotiation deadline of (2);
(d) each user's own agent Ai1, 2.. n initializes its own acceptance condition C by equation (2)i,i=1,2,...,n;
Figure BDA0001482585410000076
In the formula, pii,jIs a self body AiReceived from the self-body AjScheduling proposal of (1), Oii,j) Is a self body AiIn scheduling proposal pii,jThe objective function value of;
(e) resource autonomous body A0And each user's own body Ai1, 2.. N, N initialize respective negotiation conditions N with equation (3)i,i=0,1,2,...,n。
Figure BDA0001482585410000077
Step 2, starting multi-agent scheduling: resource autonomous body A0Initializing a negotiation constraint set as empty R { }, then taking a multi-main-body scheduling processing task set T as a scheduling object, and generating a scheduling scheme pi in a mode shown by a formula (4)0And submits the scheduling scheme as an initial proposal to an individual user main body Ai1,2, n to start multi-subject scheduling. The method comprises the following specific steps:
Figure BDA0001482585410000078
step 3, starting the negotiation information on-line learning of the negotiation object: when the negotiation object is autonomous AjAt the time of starting from the body AjAfter submitting a new proposal, updating a historical proposal information set, and then optimizing a negotiation strategy model shown in formula (5) by using a random gradient descent method by taking the historical proposal and corresponding proposal time as input so as to learn the autonomous agent AjNegotiation strategy Sj(ii) a From subject A obtained by learningjApproximate negotiation strategy of
Figure BDA0001482585410000081
Obtain a subject AjEstimate of the value of the ideal objective function
Figure BDA0001482585410000082
Estimate of minimum acceptable objective function value
Figure BDA0001482585410000083
And an estimate of the negotiation deadline
Figure BDA0001482585410000084
The method comprises the following specific steps:
Figure BDA0001482585410000085
in the formula (I), the compound is shown in the specification,
Figure BDA0001482585410000086
is a self body AjAt negotiated time tjAn estimate of the objective function value of the proposal at time,
Figure BDA0001482585410000087
is a self body AjAn estimate of the negotiated policy adjustment factor of aj,bj,cjAre constant parameters.
(a) Receiving information from a negotiated object AjP (th) proposal information of
Figure BDA0001482585410000088
Wherein the content of the first and second substances,
Figure BDA0001482585410000089
for negotiating object AjSubmit the p' th proposal
Figure BDA00014825854100000810
Negotiated time of day;
(b) updating the history proposal information set of the negotiation object:
Figure BDA00014825854100000811
(c) with set of objective functions { O1,O2,....,Oq,...,OmEvaluate the negotiated object A for each objective function injIs proposed
Figure BDA00014825854100000812
And records the value of each objective function { O }1,p,O2,p,...,Oq,p,...,Om,pIn which O isq,pQ is 1, 2.. times.m is the objective function OqIn the negotiation of object AjIs proposed
Figure BDA00014825854100000813
A value of;
(d) updating the target value data set of the history proposal of the negotiation object:
Figure BDA00014825854100000814
(e) order to
Figure BDA00014825854100000815
And
Figure BDA00014825854100000816
optimizing the negotiation strategy model shown in the formula (5) by adopting a random gradient descent method so as to learn the negotiation strategy of a negotiation opponent; then, the data are recorded in each objective function Oq1,2,.. m, after learning
Figure BDA00014825854100000817
Least square error of
Figure BDA00014825854100000818
And parameters of the corresponding negotiation strategy model
Figure BDA00014825854100000819
Is estimated value of
Figure BDA00014825854100000820
(f) Order negotiation object AjObject function O ofjIs composed of
Figure BDA00014825854100000821
Corresponding objective function Oθθ ∈ {1, 2., m }, and let negotiation object AjIs approximately negotiated the strategy of
Figure BDA0001482585410000091
Then connected vertically
Figure BDA0001482585410000092
Figure BDA0001482585410000093
And
Figure BDA0001482585410000094
finding a negotiated object AjEstimate of the value of the ideal objective function
Figure BDA0001482585410000095
Estimation of minimum acceptable target value
Figure BDA0001482585410000096
And an estimate of the negotiation deadline
Figure BDA0001482585410000097
Step 4, the user self-body and the resource self-body negotiate and schedule: and finally obtaining a multi-subject scheduling scheme with multi-subject negotiation consistency by the user subject and the resource subject through continuous alternative proposal and modification proposal.
Step 4.1, making a user self-body autonomous behavior decision:
(a) when the user is self-owned AiReceiving a message from a resource autonomous agent A0Scheduling proposal pii,0Thereafter, the resource self-agent A is learned through step 20Negotiation information of
Figure BDA0001482585410000098
Synthetic resource autonomous body A0Negotiation information X of0And user-autonomous body AiNegotiation information of
Figure BDA0001482585410000099
User-owned entity AiThe formula (6) is adopted to modify the negotiation strategy adjustment factor, and then the formula (1) is adopted to adjust the self negotiation strategy Si. The method comprises the following specific steps:
βi=βi+gi(X0,Xi) (6)
in the formula, gi(.) is the user's own principal AiThe negotiation strategy employed adjusts the function.
When the user is self-owned AiReceiving from the resource autonomous body A0Scheduling proposal pii,0Thereafter, the resource self-body A is recorded0Currently negotiated time t0
Resources are transferred from subject A0Has negotiated time t of0And scheduling proposal pii,0Submit step 2 learning and obtain resource autonomous body A0Negotiation information X of0: ideal objective function value
Figure BDA00014825854100000910
Minimum acceptable target value
Figure BDA00014825854100000911
And negotiating a deadline
Figure BDA00014825854100000912
User-owned entity AiAccording to the negotiation information X of the resource autonomous body obtained by learning0And user-autonomous body AiSelf negotiation information XiThe user self-body A is reasoned and modified on line through the formula (6)iNegotiation policy adjustment factor of (2):
Figure BDA00014825854100000913
user-owned entity AiAdjusting the modified negotiation strategy by a factor betaiSubstituting formula (1), adjusting its own negotiation strategy Si
(b) User-owned entity AiUsing the adjusted negotiation strategy SiUpdating itself at the currently negotiated time tiObjective function value of time proposal
Figure BDA00014825854100000914
Adjusting the self-acceptance condition CiAnd negotiation condition NiAnd controlling the negotiation process according to the following steps: if C is presentiNotify resource autonomous A if 10Accepting the current proposal and completing the negotiation, otherwise calculating Ni(ii) a If N is presentiIf 0, the resource self-body A is informed0Refusing current proposal and abandoning negotiation, otherwise user self-body AiTurning to step (c) and continuing to the resource self-body A0A proposal is made.
(c) Under the condition of meeting the negotiation constraint set R, the user self-body AiAccording to formula (7), with resources from subject A0Is proposed pii,0Based on the obtained target value, local search algorithm is adopted to obtain the target value satisfying itself
Figure BDA0001482585410000101
And then propose the scheme as a feedback scheme pi0,iSubmission to resource autonomous agent A0
Figure BDA0001482585410000102
Step 4.2, making a resource autonomous behavior decision:
(a) the resource autonomous body waits for and receives feedback information of all the user autonomous bodies which do not finish the negotiation: if the user is from principal AiReceiving the proposal, the resource is from the subject A0Recording user self-body AiCompleting negotiation and updating a negotiation constraint set R; if the user is from principal AiRefusing proposal, then the resource is from subject A0Recognition and user-autonomous body AiConflicting user-autonomous agents AiThen, turning to step 5; if the user is from principal AiFeedback proposal pi0,iThen go to step 2 to learn the user's own body AiNegotiation information of
Figure BDA0001482585410000103
The method comprises the following specific steps:
resource autonomous body A0Waiting for all outstanding negotiated user autonomous AiThe feedback information of (2): if the user is from principal AiThe feedback is the negotiation decision information, thenTurning to the step 2; if the feedback is the scheduling proposal, turning to step 3; if the user is from principal AiReceiving the current proposal, the resource is from the main body A0Recording user self-body AiThe negotiation is completed, and the user is self-owned AiAdding the processing tasks of the other users into a negotiation constraint set R in the time interval of the processing tasks, wherein the processing tasks of the other users in the time interval in the negotiation constraint set R cannot be occupied; if the user is from principal AiDisagreement with the current proposal and quit with the resource self-body A0Negotiation of (2), then the resource is autonomous from principal A0Will identify and user from principal AiUser-autonomous body A with conflict on scheduling schemejAnd go to step 5.
Resource autonomous body A0Receiving from a user self-body AiIs given by a feedback scheme pi0,iAnd records the user self-body AiHas negotiated time t ofiAnd turning to step 2 to learn the user's own body AiNegotiation information X ofi: ideal value of objective function
Figure BDA0001482585410000104
Minimum acceptable target value
Figure BDA0001482585410000105
And negotiating a deadline
Figure BDA0001482585410000106
Resource autonomous body A0Judging whether all the user self-bodies which do not finish the negotiation have submitted a feedback scheme: if both are submitted, go to step (b); otherwise, continuously waiting and receiving the feedback information of the user self-body.
(b) Resource autonomous body A0Judging whether the multi-subject scheduling is completed: calculating the judgment condition C according to the formula (8)0If C is present0If 1, the multi-master scheduling is completed and goes to step 6, otherwise go to step (c) to continue negotiation.
Figure BDA0001482585410000107
In the formula, BiFor users to self-body AiNegotiation status flag of (1): b isi0 stands for abort negotiation, BiWith 1 standing for continued negotiation, BiAnd 2 represents the completion of the negotiation.
(c) Synthetic resource autonomous body A0Self negotiation information X0And negotiation information { X ] of each user-owned entity that does not complete negotiation1,X2,.., the resource is from principal A0The formula (9) is adopted to modify the adjustment factor of the negotiation strategy, and the formula (1) is substituted to update the self negotiation strategy S0. The method comprises the following specific steps:
β0=β0+g0(X0,X1,X2,...) (9)
in the formula, g0(.) is a self-owned agent A0The negotiation strategy employed adjusts the function.
Resource autonomous body A0Subject A of each user obtained by learningiNegotiation information X ofi: ideal value of objective function
Figure BDA0001482585410000111
Minimum acceptable target value
Figure BDA0001482585410000112
And negotiating a deadline
Figure BDA0001482585410000113
And resource-autonomous body A0Self negotiation information X0The resource self-body A is reasoned and modified on line through the formula (9)0Negotiation policy adjustment factor of (2):
Figure BDA0001482585410000114
resource autonomous body A0Adjusting the modified negotiation strategy by a factor beta0Substituting formula (1), adjusting its own negotiation strategy S0
(d) Resources are derived fromMain body A0Using the adjusted negotiation strategy S0Updating itself at the currently negotiated time t0Objective function value of time proposal
Figure BDA0001482585410000115
Adjusting self negotiation condition N according to formula (3)0To control the negotiation process: if N is presentiIf 0, then the resource is from principal A0Abandoning to continue the multi-subject scheduling and turning to step 6, otherwise, the resource self-subject A meets the condition of the negotiation constraint set R0Amending the proposal and making a new scheduling scheme pi0Satisfy the current objective function value of the self
Figure BDA0001482585410000116
Then scheduling scheme pi0Submitted to all the user-autonomous bodies that do not complete the negotiation.
Step 5, the user self-body AiUser-autonomous body A with scheduling conflictjAnd (3) negotiation scheduling:
step 5.1, user-independent agent AjJudging whether to accept the user self-body AiThe negotiation request of (2); if the negotiation is accepted, go to step 5.2, otherwise the user is self-owned AjRefusing and user self-body AiThe scheduling negotiation is transferred to step 5.3;
step 5.2, user's own agent AiWith the user's own body AjScheduling negotiation:
(a) user-owned entity AjAnd (3) autonomous behavior decision making: user-owned entity AjReceiving from a user self-body AiScheduling proposal pij,iThereafter, the user-independent entity A is learned through step 2iNegotiation information of
Figure BDA0001482585410000117
And updating the negotiation strategy S of the selfjAdjusting the self-acceptance condition CjAnd negotiation condition Nj(ii) a If the proposal is continued, the user self-body A is used under the condition that the negotiation constraint set R is satisfiediIs proposed pij,iOn the basis of which the user is self-owned AjBy local searchingThe cable algorithm obtains a target value satisfying itself
Figure BDA0001482585410000121
And then propose the scheme as a feedback scheme pii,jSubmitted to the user's autonomous body AiOtherwise, the user is self-owned AjFinish negotiation and go to step 5.3; the method comprises the following specific steps:
when the user is self-owned AjReceiving from user self-body AiScheduling proposal pij,iThen, recording the user self-body AiCurrently negotiated time ti
The user is self-owned AiHas negotiated time t ofiAnd scheduling proposal piiSubmitting step 2, learning and obtaining user self-body AiNegotiation information X ofi: ideal objective function value
Figure BDA0001482585410000122
Minimum acceptable target value
Figure BDA0001482585410000123
And negotiating a deadline
Figure BDA0001482585410000124
User-owned entity AjUser-independent body A obtained according to learningiNegotiation information X ofiAnd user-autonomous body AjSelf negotiation information XjOn-line reasoning and modifying user-autonomous body AiNegotiation policy adjustment factor of (2):
Figure BDA0001482585410000125
user-owned entity AjAdjusting the modified negotiation strategy by a factor betajSubstituting formula (1), adjusting its own negotiation strategy Sj. User-owned entity AjUsing the adjusted negotiation strategy SjUpdating itself at the currently negotiated time tjProposed at the time of dayValue of objective function
Figure BDA0001482585410000126
Adjusting the self-acceptance condition CjAnd negotiation condition NjAnd controlling the negotiation process according to the following steps: if C is presentjNotify the user of the user's own A if 1iAccepting the current proposal and completing the negotiation, otherwise calculating Nj(ii) a If N is presentjIf 0, the user is notified of the agent AiRefusing current proposal and abandoning negotiation, otherwise user self-body AjContinue to the user self-body AiA proposal is made.
In the case of meeting the negotiation constraint set R, the user self-body AiIs proposed pij,iOn the basis of which the user is self-owned AiObtaining a current target value satisfying the local search algorithm
Figure BDA0001482585410000127
And then propose the scheme as a feedback scheme pii,jSubmitted to the user's autonomous body Ai
(b) User-owned entity AiAnd (3) autonomous behavior decision making: user-owned entity AiReceiving from a user self-body AjFeedback scheduling proposal pii,jThereafter, the user-independent entity A is learned through step 2jNegotiation information of
Figure BDA0001482585410000128
And updating the negotiation strategy S of the selfiAdjusting the self-acceptance condition CiAnd negotiation condition Ni(ii) a If the proposal is continued, the user self-body A is used under the condition that the negotiation constraint set R is satisfiedjFeedback proposal ofi,jOn the basis of which the user is self-owned AiObtaining target value satisfying itself by local search algorithm
Figure BDA0001482585410000129
And then the scheme is taken as a new proposal pij,iSubmitted to the user's autonomous body AjOtherwise, the user is self-owned AiThe negotiation is ended and step 5 is passed.3; the method comprises the following specific steps:
when the user is self-owned AiReceiving from user self-body AjFeedback scheduling proposal pii.jThen, recording the user self-body AjCurrently negotiated time tj
The user is self-owned AjHas negotiated time t ofjAnd scheduling proposal pijSubmitting step 2, learning and obtaining user self-body AjNegotiation information X ofj: ideal objective function value
Figure BDA0001482585410000131
Minimum acceptable target value
Figure BDA0001482585410000132
And negotiating a deadline
Figure BDA0001482585410000133
User-owned entity AiUser-independent body A obtained according to learningjNegotiation information X ofjAnd user-autonomous body AiSelf negotiation information XiOn-line reasoning and modifying user-autonomous body AiNegotiation policy adjustment factor of (2):
Figure BDA0001482585410000134
user-owned entity AiAdjusting the modified negotiation strategy by a factor betaiSubstituting formula (1), adjusting its own negotiation strategy Si. User-owned entity AiUsing the adjusted negotiation strategy SiUpdating itself at the currently negotiated time tiObjective function value of time proposal
Figure BDA0001482585410000135
Adjusting the self-acceptance condition CiAnd negotiation condition NiAnd controlling the negotiation process according to the following steps: if C is presentiNotify the user of the user's own A if 1jAccept the current proposal and completeNegotiate, otherwise calculate Ni(ii) a If N is presentiIf 0, the user is notified of the agent AjRefusing current proposal and abandoning negotiation, otherwise user self-body AiContinue to the user self-body AjA proposal is made.
In the case of meeting the negotiation constraint set R, the user self-body AjIs proposed pii,jOn the basis of which the user is self-owned AiObtaining target value satisfying itself by local search algorithm
Figure BDA0001482585410000136
And then propose the scheme as a feedback scheme pij,iSubmitted to the user's autonomous body Aj
Step 5.3, turning to step (a) of step 4.2, feeding back a negotiation result to the resource autonomous body: if the user is from principal AiAnd a user-autonomous body AjIf the negotiation is reached, then the agreed scheduling scheme pi will be reachedi,jAs a user self-body AiAnd a user-autonomous body AjIs submitted to the resource autonomous body A0(ii) a Otherwise the user is self-owned AiNotification of resource autonomous body A0The negotiation is abandoned and the final multi-master scheduling scheme is accepted.
Step 6, if the multi-agent scheduling is finished, outputting a scheduling scheme pi with the negotiation consistency between the resource autonomous agent and all the user autonomous agents0,1,...,m(ii) a Otherwise, scheduling the processing tasks which are not in accordance with the negotiation except the negotiation constraint set R by adopting a preset arbitration rule to generate a final multi-main-body scheduling scheme pi0,1,...,mAnd output.
Although embodiments of the present invention have been shown and described above, it is understood that the above embodiments are exemplary and should not be construed as limiting the present invention, and that variations, modifications, substitutions and alterations can be made in the above embodiments by those of ordinary skill in the art without departing from the principle and spirit of the present invention.

Claims (1)

1. A multi-subject scheduling method facing to personalized production environment is characterized in that: the method comprises the following steps:
step 1, initializing multi-agent scheduling:
(a) each user autonomous entity establishes communication with a resource autonomous entity to determine a set of autonomous entities { A } that participate in multi-entity scheduling0,A1,A2,...,Ai,...,AnIn which A is0Represents a resource autonomous body, AiN represents the respective user's own subject;
(b) resource autonomous body A0With each user's own body Ai1, 2.. n to determine a multi-master scheduled process task set T ═ T ·1,T2,...,Ti,...,TnWhere T isiFor users to self-body AiThe processing task of (2);
(c) respective main body AiN sets a respective maximum scheduling objective function O, 0,1,2iI is 0,1, 2.., n, and initializes the respective negotiation policy S according to equation (1)i
Figure FDA0001482585400000011
In the formula (I), the compound is shown in the specification,
Figure FDA0001482585400000012
is a self body AiAt negotiated time tiObjective function value of time, betaiIs a self body AiThe negotiation policy adjustment factor of (2) is,
Figure FDA0001482585400000013
is a self body AiThe value of the ideal objective function of (c),
Figure FDA0001482585400000014
is a self body AiThe minimum value of the objective function that is acceptable,
Figure FDA0001482585400000015
is a self body AiA negotiation deadline of (2);
(d) each user's own agent Ai1, 2.. n initializes its own acceptance condition C by equation (2)i,i=1,2,...,n;
Figure FDA0001482585400000016
In the formula, pii,jIs a self body AiReceived from the self-body AjScheduling proposal of (1), Oii,j) Is a self body AiIn scheduling proposal pii,jThe objective function value of;
(e) respective main body AiN, initializing respective negotiation conditions N according to equation (3)i,i=0,1,2,...,n;
Figure FDA0001482585400000017
Step 2, starting multi-agent scheduling:
resource autonomous body A0Initializing a negotiation constraint set as empty R { }, then taking a multi-main-body scheduling processing task set T as a scheduling object, and generating a scheduling scheme pi in a mode shown by a formula (4)0And submits the scheduling scheme as an initial proposal to an individual user main body Ai1,2, n to start multi-subject scheduling;
Figure FDA0001482585400000018
step 3, starting the negotiation information on-line learning of the negotiation object:
when the negotiation object is autonomous AjAt the time of starting from the body AjAfter submitting a new proposal, updating a historical proposal information set, and then optimizing a negotiation strategy model shown in formula (5) by using a random gradient descent method by taking the historical proposal and corresponding proposal time as input so as to learn the autonomous agent AjNegotiation strategy Sj(ii) a From subject A obtained by learningjApproximate negotiation strategy of
Figure FDA0001482585400000021
Obtain a subject AjEstimate of the value of the ideal objective function
Figure FDA0001482585400000022
Estimate of minimum acceptable objective function value
Figure FDA0001482585400000023
And an estimate of the negotiation deadline
Figure FDA0001482585400000024
Figure FDA0001482585400000025
In the formula (I), the compound is shown in the specification,
Figure FDA0001482585400000026
is a self body AjAt negotiated time tjAn estimate of the objective function value of the proposal at time,
Figure FDA0001482585400000027
is a self body AjAn estimate of the negotiated policy adjustment factor of aj,bj,cjIs a constant parameter;
step 4, the user self-body and the resource self-body negotiate and schedule: the user self-body and the resource self-body finally obtain a multi-body scheduling scheme with multi-body negotiation consistency through continuous alternate proposal and modification proposal:
step 4.1, making a user self-body autonomous behavior decision:
(a) when the user is self-owned AiReceiving a message from a resource autonomous agent A0Scheduling proposal pii,0Thereafter, the resource self-agent A is learned through step 20Negotiation information of
Figure FDA0001482585400000028
Synthetic resource autonomous body A0Negotiation information X of0And user-autonomous body AiNegotiation information of
Figure FDA0001482585400000029
User-owned entity AiThe formula (6) is adopted to modify the negotiation strategy adjustment factor, and then the formula (1) is adopted to adjust the self negotiation strategy Si
βi=βi+gi(X0,Xi) (6)
In the formula, gi(.) is the user's own principal AiAdjusting a function by adopting a negotiation strategy;
(b) user-owned entity AiUsing the adjusted negotiation strategy SiUpdating itself at the currently negotiated time tiObjective function value of time proposal
Figure FDA00014825854000000210
Adjusting the self-acceptance condition CiAnd negotiation condition NiAnd controlling the negotiation process according to the following steps: if C is presentiNotify resource autonomous A if 10Accepting the current proposal and completing the negotiation, otherwise calculating Ni(ii) a If N is presentiIf 0, the resource self-body A is informed0Refusing current proposal and abandoning negotiation, otherwise user self-body AiTurning to step (c) and continuing to the resource self-body A0Proposing a proposal;
(c) under the condition of meeting the negotiation constraint set R, the user self-body AiAccording to formula (7), with resources from subject A0Is proposed pii,0Based on the obtained target value, local search algorithm is adopted to obtain the target value satisfying itself
Figure FDA00014825854000000211
And then propose the scheme as a feedback scheme pi0,iSubmission to resource autonomous agent A0
Figure FDA00014825854000000212
Step 4.2, making a resource autonomous behavior decision:
(a) the resource autonomous body waits for and receives feedback information of all the user autonomous bodies which do not finish the negotiation: if the user is from principal AiReceiving the proposal, the resource is from the subject A0Recording user self-body AiCompleting negotiation and updating a negotiation constraint set R; if the user is from principal AiRefusing proposal, then the resource is from subject A0Recognition and user-autonomous body AiConflicting user-autonomous agents AjThen, turning to step 5; if the user is from principal AiFeedback proposal pi0,iThen go to step 2 to learn the user's own body AiNegotiation information of
Figure FDA0001482585400000031
(b) Resource autonomous body A0Judging whether the multi-subject scheduling is completed: calculating the judgment condition C according to the formula (8)0If C is present0If the result is 1, the multi-agent scheduling is finished and the step 6 is carried out, otherwise, the step (c) is carried out to continue the negotiation;
Figure FDA0001482585400000032
in the formula, BiFor users to self-body AiNegotiation status flag of (1): b isi0 stands for abort negotiation, BiWith 1 standing for continued negotiation, Bi2 represents the completion of the negotiation;
(c) synthetic resource autonomous body A0Self negotiation information X0And negotiation information { X ] of each user-owned entity that does not complete negotiation1,X2,.., the resource is from principal A0The formula (9) is adopted to modify the adjustment factor of the negotiation strategy, and the formula (1) is substituted to update the self negotiation strategy S0
β0=β0+g0(X0,X1,X2,...) (9)
In the formula, g0(.) is a self-owned agent A0Adjusting a function by adopting a negotiation strategy;
(d) resource autonomous body A0Using the adjusted negotiation strategy S0Updating itself at the currently negotiated time t0Objective function value of time proposal
Figure FDA0001482585400000033
Adjusting self negotiation condition N according to formula (3)0To control the negotiation process: if N is presentiIf 0, then the resource is from principal A0Abandoning to continue the multi-subject scheduling and turning to step 6, otherwise, the resource self-subject A meets the condition of the negotiation constraint set R0Amending the proposal and making a new scheduling scheme pi0Satisfy the current objective function value of the self
Figure FDA0001482585400000034
Then scheduling scheme pi0Submitting the data to all the user autonomous bodies which do not finish the negotiation;
step 5, the user self-body AiUser-autonomous body A with scheduling conflictjAnd (3) negotiation scheduling:
step 5.1, user-independent agent AjJudging whether to accept the user self-body AiThe negotiation request of (2); if the negotiation is accepted, go to step 5.2, otherwise the user is self-owned AjRefusing and user self-body AiThe scheduling negotiation is transferred to step 5.3;
step 5.2, user's own agent AiWith the user's own body AjScheduling negotiation:
(a) user-owned entity AjAnd (3) autonomous behavior decision making: user-owned entity AjReceiving from a user self-body AiScheduling proposal pij,iThereafter, the user-independent entity A is learned through step 2iNegotiation information of
Figure FDA0001482585400000041
And updating the negotiation strategy S of the selfjAdjusting the self-acceptance condition CjAnd negotiation condition Nj(ii) a If the proposal is continued, the user self-body A is used under the condition that the negotiation constraint set R is satisfiediIs proposed pij,iOn the basis of which the user is self-owned AjObtaining target value satisfying itself by local search algorithm
Figure FDA0001482585400000042
And then propose the scheme as a feedback scheme pii,jSubmitted to the user's autonomous body AiOtherwise, the user is self-owned AjFinish negotiation and go to step 5.3;
(b) user-owned entity AiAnd (3) autonomous behavior decision making: user-owned entity AiReceiving from a user self-body AjFeedback scheduling proposal pii,jThereafter, the user-independent entity A is learned through step 2jNegotiation information of
Figure FDA0001482585400000043
And updating the negotiation strategy S of the selfiAdjusting the self-acceptance condition CiAnd negotiation condition Ni(ii) a If the proposal is continued, the user self-body A is used under the condition that the negotiation constraint set R is satisfiedjFeedback proposal ofi,jOn the basis of which the user is self-owned AiObtaining target value satisfying itself by local search algorithm
Figure FDA0001482585400000044
And then the scheme is taken as a new proposal pij,iSubmitted to the user's autonomous body AjOtherwise, the user is self-owned AiFinish negotiation and go to step 5.3;
step 5.3, turning to step (a) of step 4.2, feeding back a negotiation result to the resource autonomous body: if the user is from principal AiAnd a user-autonomous body AjIf the negotiation is reached, then the agreed scheduling scheme pi will be reachedi,jAs a user self-body AiAnd a user-autonomous body AjIs submitted to the resource autonomous body A0(ii) a Otherwise the user is self-owned AiNotification of resource autonomous body A0Abandoning negotiation and accepting the final multi-subject scheduling scheme;
step 6, if the multi-agent scheduling is finished, outputting a scheduling scheme pi with the negotiation consistency between the resource autonomous agent and all the user autonomous agents0,1,...,m(ii) a Otherwise, scheduling the processing tasks with the negotiation not being consistent except the negotiation constraint set R by adopting a preset arbitration rule to generate a final multi-main-body scheduling scheme pi0,1,...,mAnd output.
CN201711200199.2A 2017-11-27 2017-11-27 Multi-subject scheduling method oriented to personalized production environment Active CN107992999B (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN201711200199.2A CN107992999B (en) 2017-11-27 2017-11-27 Multi-subject scheduling method oriented to personalized production environment

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN201711200199.2A CN107992999B (en) 2017-11-27 2017-11-27 Multi-subject scheduling method oriented to personalized production environment

Publications (2)

Publication Number Publication Date
CN107992999A CN107992999A (en) 2018-05-04
CN107992999B true CN107992999B (en) 2021-06-11

Family

ID=62032145

Family Applications (1)

Application Number Title Priority Date Filing Date
CN201711200199.2A Active CN107992999B (en) 2017-11-27 2017-11-27 Multi-subject scheduling method oriented to personalized production environment

Country Status (1)

Country Link
CN (1) CN107992999B (en)

Families Citing this family (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN112101712B (en) * 2020-08-04 2023-06-09 西北工业大学 Parallel machine multi-agent auction negotiation scheduling method
CN112529313B (en) * 2020-12-17 2022-12-09 中国航空综合技术研究所 Intelligent human-machine engineering design optimization method based on negotiation strategy
CN112862312B (en) * 2021-02-07 2022-09-06 山东大学 Manufacturing service resource dynamic scheduling method and system based on random online algorithm

Family Cites Families (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN1302403A (en) * 1998-05-22 2001-07-04 弗兰普顿·E·埃利斯三世 Global network computer
US7139999B2 (en) * 1999-08-31 2006-11-21 Accenture Llp Development architecture framework
CN104023316B (en) * 2013-03-01 2017-11-17 华为技术有限公司 Multicast information transmission method and apparatus
CN106375086A (en) * 2016-08-27 2017-02-01 张春萍 Big data-based internet teaching system running method

Also Published As

Publication number Publication date
CN107992999A (en) 2018-05-04

Similar Documents

Publication Publication Date Title
CN107992999B (en) Multi-subject scheduling method oriented to personalized production environment
Zhang et al. Dynamic job shop scheduling based on deep reinforcement learning for multi-agent manufacturing systems
Samsonov et al. Manufacturing Control in Job Shop Environments with Reinforcement Learning.
US11846926B2 (en) Negotiation-based method and system for coordinating distributed MES order management
CN108985709A (en) Workflow management method towards more satellite data centers collaboration Remote Sensing Products production
CN105974891B (en) A kind of mold production process self-adaptation control method based on dynamic billboard
WO2024077819A1 (en) Age-of-information optimized scheduling method for multi-sensor multi-server industrial internet of things
Shuai et al. Transfer reinforcement learning for adaptive task offloading over distributed edge clouds
US20070039004A1 (en) Decentralized coordination of resource usage in multi-agent systems
Folling et al. Robust load delegation in service grid environments
Soroush Stochastic bicriteria single machine scheduling with sequence-dependent job attributes and job-dependent learning effects
CN108215202B (en) 3D printing batch control method considering printing quality
US20230048441A1 (en) Representative task generation and curation
Gautier et al. Comparison of market-based and DQN methods for multi-robot processing task allocation (MRpTA)
CN113657742B (en) Workshop scheduling method and device, electronic equipment and storage medium
Zhang et al. Load balancing in edge computing using integer linear programming based genetic algorithm and multilevel control approach
Zarandi et al. A type 2 fuzzy multi agent based system for scheduling of steel production
Tang et al. Adaptive control of bio-inspired manufacturing systems
Zhang et al. Meta-level coordination for solving negotiation chains in semi-cooperative multi-agent systems
Fujii et al. Reinforcement learning approach to self-organization in a biological manufacturing system framework
JPH1153006A (en) Scheduling method
CN117669739B (en) Agent-based intelligent negotiation strategy optimization method and system
US20230049758A1 (en) Assignment of clinical image studies using online learning
Yang et al. Dual-Tree Genetic Programming With Adaptive Mutation for Dynamic Workflow Scheduling in Cloud Computing
Adhau et al. A multiagent based system for resource allocation and scheduling of distributed projects

Legal Events

Date Code Title Description
PB01 Publication
PB01 Publication
SE01 Entry into force of request for substantive examination
SE01 Entry into force of request for substantive examination
GR01 Patent grant
GR01 Patent grant