CN105956816A - Cargo transportation information intelligent processing method - Google Patents
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Abstract
The invention provides a cargo transportation information intelligent processing method. The method comprises the following steps: monitoring each monitoring target included in each node of a cloud platform; and collating and storing monitored logistics business data, and reducing network load through an optimizing strategy. The provided cargo transportation information intelligent processing method optimizes logistics routes for logistics enterprises, improves resource utilization rate and reduces overload risk, and provides high-quality logistics supply experience for each user.
Description
Technical field
The present invention relates to big data process, particularly to a kind of Material Transportation information intelligent processing method.
Background technology
Along with social networks, electricity the developing rapidly of business, the trading volume sharp increase of the Internet online shopping, nothing
Opinion is for electricity commercial business industry, consumer or logistics provider, a series of logistics transportation problem days that magnanimity waybill brings
Benefit is protruded.Owing to traditional logistics management mode lacks unified management, between each loglstics enterprise, lack cooperation,
The Scheduling System that neither one is unified, in the face of increasing Product transport amount, human and material resources, financial resources etc.
The resource input of repeatability causes huge waste, and such management mode also exists substantial amounts of blind spot, such as
Trans-regional transport, vehicle are unloaded, the most traditional logistics management mode cannot meet current efficiently,
The logistics transportation requirement of low cost.Cloud computing platform is collected efficiently, is stored, processed material stream information, it is ensured that
The real-time of Logistic Scheduling solution formulation and the efficient and rational configuration of resource, thus maximize reduction cost.
But how existing cloud computing system is ensureing the supply of material of quickly and orderly, keeps continual and steady supply chain, with
Guarantee to yet suffer from problem in the real-time of the unobstructed of logistics and information.Because logistics supply Chain System scale is more
Big and become increasingly complex, in the case of having people up to ten thousand to submit logistics list to the most simultaneously, common relational database
Operational efficiency becomes bottleneck；And existing cloud computing operation monitoring layer be mostly to physical resource or some
The monitoring of specific function, is not suitable for logistics logistics information cloud that is huge and that have height virtualized nature
Platform.
Summary of the invention
For solving the problem existing for above-mentioned prior art, the present invention proposes a kind of Material Transportation information intelligent
Processing method, including:
The monitoring objective comprising each node in cloud platform is monitored, and gathers and store monitored thing
Stream business datum, and utilize optimisation strategy to reduce offered load.
Preferably, described monitoring includes monitoring in real time and non real-time monitoring, at the operation monitoring layer of cloud platform
In real time in monitoring, monitor terminal is collecting monitoring data, in real time monitoring data is sent to operation monitoring layer；
Under non real-time monitoring, after the physical machine of monitor terminal and virtual machine harvester collect logistics business data,
Logistics business data are stored in the data base of this locality；State threshold is set for monitoring objective；When monitoring mesh
When target portfolio exceedes predetermined threshold value, monitor terminal and operation monitoring layer carry out data interaction, it is judged that be
No needs triggers status alert；When operation monitoring layer determines local transmission status alert, warning message is sent out
Give logistics information cloud platform；
The optimization of the most non real-time monitoring includes adding up overload amount, so that determine the need for ought
Front transient state overload status information is sent to operation monitoring layer；The local each monitoring objective of monitor terminal taken at regular intervals
Portfolio and by obtained monitoring value with preset local threshold value compare, monitor terminal i self protect
Deposit accumulated value Si(t) and accumulation threshold Hi；As accumulated value SiT () is more than accumulation threshold H presetiTime, monitoring is eventually
Hold accumulated value from (w-1) HiTo wHiTime loss Δ t and weighted average overload degree LiReport is to running prison
Control layer, wherein, weights coefficient w=1,2,3 ... Li, monitor terminal i is at the accumulated value S of tiT () is calculated as:
miThe monitoring value of x each monitoring objective that () expression monitor terminal i is gathered at time point x, t0Represent prison
The initial time of the monitoring value continuous over loading state threshold of each monitoring objective of control terminal i, TiRepresent monitor terminal
The state threshold of each monitoring objective of i, f is the frequency that monitor terminal gathers local performance parameter；
The accumulated value of monitor terminal i is from (w-1) HiTo wHiWeighted average overload degree LiIt is calculated as:
Δ t=tk-tk-1Accumulated value S for monitor terminal iiT () is from (w-1) HiTo wHiTime loss, tk、tk-1
It is respectively the accumulated value S of monitor terminal iiT () exceedes kth HiWith more than (k-1) individual HiTime point, Sk、
Sk-1Represent the accumulated value S of monitor terminal i respectivelyiT () exceedes kth HiWith (k-1) individual HiTime actual value；
As accumulated value SiT () is more than HiIntegral multiple time, send local state overload-alarm letter to operation monitoring layer
Breath；Operation monitoring layer is at time point tkAfter receiving information, according to the number of the overload messages of monitor terminal report
According to, calculate time interval (tk-Δt,tkThe overall overload degree of monitoring objective in):
L (t)=L ' (t)+Li,
tkRepresenting that operation monitoring layer receives the time point of the transient state overload-alarm of certain monitor terminal, Δ t is temporary
The time loss value of transmission in state overload-alarm, L ' (t) is the value before updating；
If monitor terminal meets Si(k-1) ＞ (k-1) * Hi, then at time point tkTime, local state overload terminates,
I.e. mi(tk)<Ti, calculate Δ t=tk-tk-1, and calculate weighted average overload degree L of this localityi, then by Δ t and
LiLast information as this transient state overload-alarm is sent to operation monitoring layer.
The present invention compared to existing technology, has the advantage that
The present invention proposes a kind of Material Transportation information intelligent processing method, optimizes logistics route for loglstics enterprise,
Improve resource utilization and reduce overload risk, providing the user high-quality logistics supply and experience.
Accompanying drawing explanation
Fig. 1 is the flow chart of Material Transportation information intelligent processing method according to embodiments of the present invention.
Detailed description of the invention
Hereafter provide one or more embodiment of the present invention together with the accompanying drawing of the diagram principle of the invention is detailed
Thin description.Describe the present invention in conjunction with such embodiment, but the invention is not restricted to any embodiment.This
Bright scope is limited only by the appended claims, and the present invention contains many replacements, amendment and equivalent.?
Middle elaboration many detail is described below to provide thorough understanding of the present invention.For exemplary purposes
And these details are provided, and can also be according to right without some in these details or all details
Claim realizes the present invention.
An aspect of of the present present invention provides a kind of Material Transportation information intelligent processing method.Fig. 1 is according to this
The Material Transportation information intelligent process flow figure of bright embodiment.
The logistics information cloud platform that the present invention proposes, is deployed in high in the clouds by data base, receives from multiple parallel
The waybill data of electricity business website, and carry out storage tube reason.Platform architecture include acquisition layer, data persistence layer,
Computation layer, off-line update step, operation monitoring layer, alternation of bed.
Acquisition layer, as the Data Source of logistics information cloud platform, receives electricity business website and submits to loglstics enterprise
Waybill, after electricity business website submits Air Way Bill No. success to, with this Air Way Bill No. as major key records by acquisition layer,
Being automatically added to a node in the data-base cluster of system, utilize distributed treatment framework, acquisition layer is permissible
Receive the submission of extensive record, the mass data being manually entered simultaneously, enter data into also by acquisition layer
In data base.This acquisition layer is also by Data Migration, the fortune in storage loglstics enterprise self relational database
Single information.For the data from different electric business websites, carry out pretreatment by acquisition layer, according in advance
Set storage organization and carry out form normalization, then be input to data persistence layer.Acquisition layer preserves data-base cluster
Address and the information such as serve port, with this with Database connects and data input.
After data input base server, it is necessary first to perform to write daily record write operation, it is used for recording logarithm
According to insertion and deletion, the most just write data in the internal memory of actual storage data.Data are written to internal memory
After, when size of data reaches the threshold value set, trigger refresh operation and content brush therein is entered distributed literary composition
In part, final storage is to distributed data base.
Data persistence layer permanently stores for waybill data.Data-base cluster is by being distributed in each loglstics enterprise
Memory node build, user submits every logistics record to, all stores logistics information cloud platform data base set
In one node database of group.Data base uses the mode of backup to store data.On database structure,
Every logistics record is exactly a line in the table of certain node database in data-base cluster, the data in data base
The distributed file system relying on bottom stores.
The data of database purchase are counted by computation layer by scheduling based on MapReduce programming framework
Calculation processes, and according to the transit node positional information of GIS-Geographic Information System, calculates the transit route of each vehicle,
Scheduling scheme is stored in corresponding vehicle management information table simultaneously.When processing initial data, pass through MapReduce
Carry out distributed treatment, cloud platform cluster arranges a main controlled node, control data as namenode
Distribution, remaining slave node, as back end, stores and analyzes and processes the data distributed by namenode.
Main controlled node is by pending deblocking, and arranges two backups, then by cloud platform framework by data base
It is stored in back end, carries out the further process of data.
Off-line update step is used for warehouse and the real-time update of information of vehicles, uses GIS-Geographic Information System location vehicle
With the current location of product, every product warehouse entry delivers from godown, and the scan data got off of getting on the bus, by storage amount, fortune
The real time position of throughput rate, vehicle and product updates data base, in order to scheduling process calls latest data.
Operation monitoring layer is used for using monitoring in real time and non real-time monitoring, utilizes optimisation strategy to reduce network and bears
Carry.Using each node in logistics information cloud platform as the monitor terminal comprising monitoring objective.Monitoring mesh
Mark includes calculating resource, storage resource, Internet resources.Monitor terminal is for monitoring collection and this locality of data
Storage.Operation monitoring layer obtains the logistics business data of local all monitor terminals, and provides data analysis,
The monitoring data pulled from each monitor terminal, it is provided that state analysis, predict, report to the police and store.Logistics is believed
Breath cloud platform provides monitoring data exhibiting and supervisor control function.Data exhibiting can present logistics to user
The current operating conditions of information cloud platform, system controls then to do supervisory layers according to current operating conditions
Go out suitably adjustment.
Alternation of bed calls correlation function inquiry data base according to the transport inquiry request that logistics manufacturer user submits to,
The result returned is fed back to query interface after treatment, finally shows user.When cloud platform receives solution
During inquiry request after analysis, arrive first in internal memory and inquire about, if inquiring about unsuccessfully entrance block caching query, if
Still there is no successful inquiring, branch to inquire about on hard disk, and the data inquired are stored in block caching, as
Really block caching be fully written, use Exchange rings delete legacy data, the result finally inquired after treatment in
Now give user.
In further embodiment, cloud platform Logistic Scheduling is regarded as a many mesh of multiple constraint by the computation layer of the present invention
The problem of mark decision-making, clusters large-scale transportation network, according to the freight volume of each cluster, utilizes
External constraint weights, are balanced, and then reduce clustering number of times, and then optimize logistics transportation road
Footpath.
The scheduling process that the present invention uses is divided into two stages: the first stage passes through K mean algorithm, by demand
Node clusters according to position and freight volume, is finally divided into k class, and distributes to k vehicle transport；Second
Stage, for each cluster areas, calculates the optimal route of this region vehicle.
In cluster process, the input point set D containing n user's request node, each node therein,
It is assumed to be d1, d2, d3......dn, then total gross trafficIf this batch of product is come by k vehicle
It is transmitted, obtains k point set D by cluster1, D2, D3......Dk, detailed process is:
First, space plane is chosen k client node d1, d2, d3......dk；Form initial clustering D '1,
D’2, D '3......D’k；For the dot matrix being made up of n the two dimension weighted point with weight w and coordinate x, y
Set D 'k, calculate weighting center of gravity and the total weight value of each initial clustering respectively, produce new cluster centre:
xk=∑ xiyi/∑xi, yk=∑ wiyi/∑yi, wherein i is traversal D 'kIn nodes, D 'kTotal weight value
For wk=∑ wi
All of point in set D is clustered again, d is put for eachn, calculate it to clustering D 'k's
Weighting division distance:
Wherein r is weights attenuation quotient；
D can be calculated by this formulai1, di2,di3......dikThe distance of k weighting, chooses wherein altogether
Minimum distance dif, then node d is added cluster D 'f, after each node is clustered again, form new gathering
Class D "1, D "2, D "3......D”k；
Calculate weighted cluster center and the total weight value of each cluster；Then steps be repeated alternatively until cluster to receive
Hold back, export final cluster result D1, D2, D3......Dk。
Wherein, realizing in the concrete parallelization of K mean algorithm cluster, the present invention uses MapReduce
Programming model, reads data from data base, produces k initial cluster center, and is saved in distributed document
In file in system, as the global variable of MapReduce programming model；By all data set piecemeals and
Cluster centre global variable is sent collectively to each mapping node, calculates in data block each node in global variable
The distance of k cluster centre, thus judge which cluster this node belongs to, after forming k cluster areas,
The node belonging to this cluster areas is included around each cluster centre node, thus with cluster centre as key,
This cluster areas, originally as value, forms middle key-value pair and passes to stipulations node；Belong to same cluster centre
All key-value pairs as the input of same stipulations, it is calculated weighting center of gravity and total weight value, produces new
Cluster centre, covers original global variable, clusters iteration the most next time；In the newest cluster
The heart is the most consistent with previous cluster centre or reaches the difference value being previously set, if meeting condition, i.e. receives
Holding back, cluster completes, and otherwise needs to return iteration again.
Logistics data, after the clustering processing of first stage, solves optimal path to each cluster areas.
I.e. in limited solution space, from the root node of solution space tree, find the weights between each node
The route that sum is minimum, using the distance between two nodes as its weights in Logistic Scheduling, namely finds
Article one, the shortest transport circuit, according to the relation with bound, from present node, selection one is best
Node, as expanding node, calculates a functional value, Approach by inchmeal optimal solution to each extended node.
The process wherein solving lower limit and the upper limit includes: for n summit in figure V, define Di(1<i<n)
For with vertex viThe limit weights sum of two beelines being connected, calculates the D on n summitiSum ∑ Cij,
And except 2 obtain lower limit, i.e. lower limit minD=∑ Cij/2；Greedy algorithm is utilized to obtain the proprietary rights of fullpath
Value summation is as the upper limit.If present node solves the lower limit obtained or owns from root node to this node
Limit weights sum more than this higher limit, give up this node.The node selecting Least-cost preferentially extends,
To optimal path.
Further, in the monitoring in real time of operation monitoring layer, monitor terminal is collecting monitoring data, in real time
Monitoring data are sent to operation monitoring layer.Under non real-time monitoring, physical machine and the virtual machine of monitor terminal are adopted
After storage collects logistics business data, logistics business data are stored in the data base of this locality.Monitoring is eventually
End arranges Condition Monitoring Unit, and sets state threshold for monitoring objective.When the portfolio of monitoring objective exceedes
During predetermined threshold value, the Condition Monitoring Unit number of the Condition Monitoring Unit of monitor terminal and operation monitoring layer
According to alternately, it may be judged whether need to trigger status alert.When operation monitoring layer determines local transmission status alert,
Warning message is sent to logistics information cloud platform, and the system alarm device of logistics information cloud platform is responsible for realizing system
System warning function.
The optimization of non real-time monitoring includes using the mode adding up overload amount to suppress transient state to transship
The quantity reported to the police.Determine the need for current transient state overload status information is sent to operation monitoring layer.Prison
The portfolio of the local each monitoring objective of control terminal taken at regular intervals by obtained monitoring value and the local threshold preset
Value compares.Monitor terminal i self preserves accumulated value Si(t) and accumulation threshold Hi.Wherein, Si(t) accumulation amount
Affected by time and two factors of overload quantity, be 0 time initial.As accumulated value SiT () is more than the accumulation threshold preset
HiTime, monitor terminal by accumulated value from (w-1) HiTo wHi(weights coefficient w=1,2,3 ... Li) time loss Δ t
With weighted average overload degree LiReport is to operation monitoring layer, and wherein, monitor terminal i is at the accumulated value of t
SiT () computing formula is:
miThe monitoring value of x each monitoring objective that () expression monitor terminal i is gathered at time point x, t0Represent prison
The initial time of the monitoring value continuous over loading state threshold of each monitoring objective of control terminal i, TiRepresent monitor terminal
The state threshold of each monitoring objective of i, f is the frequency that monitor terminal gathers local performance parameter.
The accumulated value of monitor terminal i is from (w-1) HiTo wHiWeighted average overload degree LiIt is calculated as:
Δ t=tk-tk-1Accumulated value S for monitor terminal iiT () is from (w-1) HiTo wHiTime loss, tk、tk-1
It is respectively the accumulated value S of monitor terminal iiT () exceedes kth HiWith more than (k-1) individual HiTime point, Sk、
Sk-1Represent the accumulated value S of monitor terminal i respectivelyiT () exceedes kth HiWith (k-1) individual HiTime actual value.
As accumulated value SiT () is more than HiIntegral multiple time, send local state overload-alarm letter to operation monitoring layer
Breath.Operation monitoring layer is at time point tkAfter receiving information, according to the number of the overload messages of monitor terminal report
According to, calculate time interval (tk-Δt,tkThe overall overload degree of monitoring objective in):
L (t)=L ' (t)+Li,
tkRepresenting that operation monitoring layer receives the time point of the transient state overload-alarm of certain monitor terminal, Δ t is temporary
The time loss value of transmission in state overload-alarm, L ' (t) is the value before updating.If at certain time point, run prison
Control layer is simultaneously received the transient state overload-alarm information of multiple monitor terminal, then be required for each monitoring eventually
The transient state overload-alarm information of end once calculates.
If monitor terminal meets Si(k-1) ＞ (k-1) * Hi, then at time point tkTime, local state overload terminates,
I.e. mi(tk)<Ti, calculate Δ t=tk-tk-1, and calculate weighted average overload degree L of this localityi, then by Δ t and
LiLast information as this transient state overload-alarm is sent to operation monitoring layer.
In sum, the present invention proposes a kind of Material Transportation information intelligent processing method, excellent for loglstics enterprise
Compound flow path, improves resource utilization and reduces overload risk, providing the user high-quality logistics supply
Experience.
Obviously, it should be appreciated by those skilled in the art, each module or each step of the above-mentioned present invention are permissible
Realizing by general calculating system, they can concentrate in single calculating system, or is distributed in many
On the network that individual calculating system is formed, alternatively, they can use the executable program code of calculating system
Realize, it is thus possible to be stored in storage system being performed by calculating system.So, this
Bright be not restricted to any specific hardware and software combine.
It should be appreciated that the above-mentioned detailed description of the invention of the present invention is used only for exemplary illustration or explains this
The principle of invention, and be not construed as limiting the invention.Therefore, without departing from the spirit and scope of the present invention
In the case of any modification, equivalent substitution and improvement etc. done, should be included in protection scope of the present invention
Within.Additionally, claims of the present invention be intended to fall into scope and border or
Whole in the equivalents on this scope of person and border change and modifications example.
Claims (2)
1. Material Transportation information intelligent processing method, it is characterised in that including:
The monitoring objective comprising each node in cloud platform is monitored, and gathers and store monitored thing
Stream business datum, and utilize optimisation strategy to reduce offered load.
Method the most according to claim 1, it is characterised in that described monitoring includes monitoring in real time with non-
Monitoring in real time, in the monitoring in real time of the operation monitoring layer of cloud platform, monitor terminal is collecting monitoring data,
In real time monitoring data are sent to operation monitoring layer；Under non real-time monitoring, the physical machine of monitor terminal and void
After plan machine harvester collects logistics business data, logistics business data are stored in the data base of this locality；
State threshold is set for monitoring objective；When the portfolio of monitoring objective exceedes predetermined threshold value, monitor terminal
Data interaction is carried out, it may be judged whether need to trigger status alert with operation monitoring layer；When operation monitoring layer determines
During local transmission status alert, warning message is sent to logistics information cloud platform；
The optimization of the most non real-time monitoring includes adding up overload amount, so that determine the need for ought
Front transient state overload status information is sent to operation monitoring layer；The local each monitoring objective of monitor terminal taken at regular intervals
Portfolio and by obtained monitoring value with preset local threshold value compare, monitor terminal i self protect
Deposit accumulated value Si(t) and accumulation threshold Hi；As accumulated value SiT () is more than accumulation threshold H presetiTime, monitoring is eventually
Hold accumulated value from (w-1) HiTo wHiTime loss Δ t and weighted average overload degree LiReport is to running prison
Control layer, wherein, weights coefficient w=1,2,3 ... Li, monitor terminal i is at the accumulated value S of tiT () is calculated as:
miThe monitoring value of x each monitoring objective that () expression monitor terminal i is gathered at time point x, t0Represent prison
The initial time of the monitoring value continuous over loading state threshold of each monitoring objective of control terminal i, TiRepresent monitor terminal
The state threshold of each monitoring objective of i, f is the frequency that monitor terminal gathers local performance parameter；
The accumulated value of monitor terminal i is from (w-1) HiTo wHiWeighted average overload degree LiIt is calculated as:
Δ t=tk-tk-1Accumulated value S for monitor terminal iiT () is from (w-1) HiTo wHiTime loss, tk、tk-1
It is respectively the accumulated value S of monitor terminal iiT () exceedes kth HiWith more than (k-1) individual HiTime point, Sk、
Sk-1Represent the accumulated value S of monitor terminal i respectivelyiT () exceedes kth HiWith (k-1) individual HiTime actual value；
As accumulated value SiT () is more than HiIntegral multiple time, send local state overload-alarm letter to operation monitoring layer
Breath；Operation monitoring layer is at time point tkAfter receiving information, according to the number of the overload messages of monitor terminal report
According to, calculate time interval (tk-Δt,tkThe overall overload degree of monitoring objective in):
L (t)=L ' (t)+Li,
tkRepresenting that operation monitoring layer receives the time point of the transient state overload-alarm of certain monitor terminal, Δ t is temporary
The time loss value of transmission in state overload-alarm, L ' (t) is the value before updating；
If monitor terminal meets Si(k-1) ＞ (k-1) * Hi, then at time point tkTime, local state overload terminates,
I.e. mi(tk)<Ti, calculate Δ t=tk-tk-1, and calculate weighted average overload degree L of this localityi, then by Δ t and
LiLast information as this transient state overload-alarm is sent to operation monitoring layer.
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Cited By (4)
| Publication number | Priority date | Publication date | Assignee | Title |
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| CN108022060A (en) * | 2016-10-31 | 2018-05-11 | 菜鸟智能物流控股有限公司 | Load parameter optimization method and device of logistics network |
| CN108171356A (en) * | 2016-12-07 | 2018-06-15 | 北京金风科创风电设备有限公司 | Spare part warehouse layout method and system |
| CN108876243A (en) * | 2018-06-20 | 2018-11-23 | 广州市公安局白云区分局 | Logistics information method for early warning, device and electronic equipment |
| CN110400113A (en) * | 2019-08-06 | 2019-11-01 | 三江学院 | Part real-time scheduling method and system are pulled in a kind of logistics |
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