CN107332721B - Internet of Things collection of resources transmission optimization system towards typing resource - Google Patents
Internet of Things collection of resources transmission optimization system towards typing resource Download PDFInfo
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- CN107332721B CN107332721B CN201710746795.4A CN201710746795A CN107332721B CN 107332721 B CN107332721 B CN 107332721B CN 201710746795 A CN201710746795 A CN 201710746795A CN 107332721 B CN107332721 B CN 107332721B
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
- H04L41/00—Arrangements for maintenance, administration or management of data switching networks, e.g. of packet switching networks
- H04L41/08—Configuration management of networks or network elements
- H04L41/0803—Configuration setting
- H04L41/0823—Configuration setting characterised by the purposes of a change of settings, e.g. optimising configuration for enhancing reliability
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
- H04L41/00—Arrangements for maintenance, administration or management of data switching networks, e.g. of packet switching networks
- H04L41/08—Configuration management of networks or network elements
- H04L41/0896—Bandwidth or capacity management, i.e. automatically increasing or decreasing capacities
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
- H04L41/00—Arrangements for maintenance, administration or management of data switching networks, e.g. of packet switching networks
- H04L41/14—Network analysis or design
- H04L41/145—Network analysis or design involving simulating, designing, planning or modelling of a network
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04W—WIRELESS COMMUNICATION NETWORKS
- H04W84/00—Network topologies
- H04W84/18—Self-organising networks, e.g. ad-hoc networks or sensor networks
Abstract
The present invention is a kind of Internet of Things collection of resources transmission optimization system development method towards typing resource, sensor group it is collected in the form of data, information and knowledge etc. existing for resource, these resource transmissions to resource are handled into node using Internet of Things transmission network, optimized allocation of resources belongs to distributed computing and Software Engineering technology crossing domain.The present invention proposes through the type changing of transformation resource extent between the resources such as data, information and knowledge, solves the problems, such as to be led to that resource can not transmission efficiency is low, network resource utilization is not high by network bandwidth resources are limited.
Description
Technical field
The present invention is a kind of Internet of Things collection of resources transmission optimization system development method towards typing resource, specific
Under scene using arrangement sensor group acquire in the form of data, information and knowledge etc. existing for resource, transmitted using Internet of Things
These resource transmissions to resource are handled node by network.Be mainly used for solve cause since the resources such as network bandwidth are limited resource without
Method in real time, complete transmission the problem of, belong to distributed computing and Software Engineering technology crossing domain.
Background technique
With the development of technology of Internet of things, the stock number sharp increase acquired using sensor network, under environment of internet of things
The performance of real time resources transmitting and scheduling determines the management of process and memory management efficiency of sensing node in Internet of Things, resources for research
It dispatches the system control performance to improvement Internet of Things, the connectivity of raising network and resource and improves real-time tranception ability with important
Meaning.Traditional resource transmission method does not consider that resource type is converted, and resource is easy by network bandwidth, forwarding in transmission process
The limitation of length, causes the problem of transmission efficiency is low.
The present invention proposes a kind of Internet of Things collection of resources transmission optimization system development method towards typing resource, crucial
The sensor group that technology is that internet of things data acquisition terminal is arranged under special scenes is collected with data, information and knowledge etc.
Source material existing for form, by tts resource type change resource extent, the cost of corrdinated adjustment Resource Calculation and storage,
Optimize resource utilization and efficiency of transmission, reduces loss of signal of the source material in transmission process.
Summary of the invention
The purpose of the present invention is to propose to one kind by utilizing sensor network to acquire with data under special scenes
(DataDIK), information (InformationDIK) and knowledge (KnowledgeDIK) etc. forms source material, vast resources are passing
During defeated because the limitation of limited network bandwidth resources can not complete, real-time Transmission, the present invention proposes to pass through tts resource type
Change resource extent, the space cost of optimization resource storage and the time cost of Resource Calculation, improves resource utilization.
The present invention is a kind of Internet of Things collection of resources transmission optimization system development method towards typing resource, sensor
The resource of the types such as collected data, information and knowledge causes to transmit in transmission process since the resources such as network bandwidth are limited
Low efficiency, resource allocation is uneven, and the present invention proposes to improve resource utilization and biography by tts resource type change resource extent
Defeated efficiency;It includes using resource instances, resource type, the concept of resource collection to resource classification that the present invention, which defines Resource Modeling,
The description that description, resource type are converted, is defined as follows:
(1) resource instances (RINS): describing the resource of atomic level, as the bottom node of resource classification tree, resource
Example includes resource type (REtype) and resource extent (REsca) two attributes, it is represented by RINS:=< REtype, REsca>;
(2) resource type (TypeDIK): it includes three types that the present invention, which defines resource, is data, information and knowledge respectively,
It is represented by TypeDIK:=<DataDIK, InformationDIK, KnowledgeDIK>.Table 1 gives to DataDIK、
InformationDIKAnd KnowledgeDIKEtc. resource types explanation;
(3) resource collection (RC): resource collection is the set of different type or same type of resources, by resource instances structure
At;
The stepped form of 1. resource type of table
Fig. 1 gives the architecture of the Internet of Things collection of resources transmission optimization system towards typing resource, and Fig. 2 is provided
The flow chart of Internet of Things collection of resources transmission optimization system towards typing resource.Sensor is divided into data and passed by the present invention
Sensor, information sensor and knowledge sensor acquire the resource of the types such as data, information and knowledge respectively, and will be collected
Resource collection is defined as RES:={ RESD, RESI, RESK, the scale of every kind of resource is Amt={ AmtD, AmtI, AmtK,
Table 2 show the atom cost that unit resource type is converted in RES, and table 3 show the scope increment of unit resource type conversion,
Table 4 show the transmission cost and storage cost of unit resource;
The atom cost that unit resource type is converted in table 2.RES
The scope increment of 3. unit resource type of table conversion
The transmission cost and storage cost of 4. unit resource of table
The invention proposes a kind of Internet of Things collection of resources transmission optimization system development method towards typing resource leads to
Cross sensor group it is collected in the form of data, information and knowledge etc. existing for resource, using Internet of Things transmission network by these
Resource transmission to resource handles node, optimized allocation of resources.The present invention is proposed by between the resources such as data, information and knowledge
Type changing of transformation resource extent, solving is led to that resource can not transmission efficiency is low, Internet resources by network bandwidth resources are limited
The not high problem of utilization rate.This method has the advantages that
1) to the division of resource type
Divide resources into DataDIK、InformationDIKAnd KnowledgeDIK, convenient for excavating the connection between resource
With tts resource type, and then change resource extent, the resource constraints such as dynamically adapting network bandwidth, caching;
2) storage and the integrative coordinated adjustment of calculating
A kind of Internet of Things collection of resources transmission optimization system development method towards typing resource, passes through the sensing of arrangement
Device group collect in the form of data, information and knowledge etc. existing for source material, tts resource type change resource extent, collaboration
Adjustresources calculate and the cost of storage, optimize resource utilization and efficiency of transmission, reduce source material in transmission process
Loss of signal;
3) Internet resources are dynamically distributed
By the subdivision to existing resource and rationally storage, the space efficiency of resource storage is optimized, Internet of Things is reduced and passes
The network bandwidth resources occupied during defeated resource dynamically distribute network bandwidth resources, improve resource utilization.
Detailed description of the invention
Fig. 1 is a kind of system knot of Internet of Things collection of resources transmission optimization system development method towards typing resource
Structure.
Fig. 2 is a kind of flow chart of Internet of Things collection of resources transmission optimization system development method towards typing resource.
Specific embodiment
A kind of Internet of Things collection of resources transmission optimization system development method towards typing resource, uses sensor network
Acquisition under special scenes with data (DataDIK), information (InformationDIK) and knowledge (KnowledgeDIK) these three
Resource existing for form, in Internet of Things transmission network kind by these resource transmissions to resource processing platform, to solve internet of things
The contradiction of finite bandwidth and vast resources transmission demand, by comparing direct transfer resource and first two kinds of transfer resource biographies after processing
The cost of transmission scheme determines the transmission mode of resource, and the processing to resource mainly includes resource type conversion, thus it is real now with
Dynamic resource allocation under the network bandwidth resources of limit improves the efficiency of transmission of network resource utilization and collected resource,
Sensor is divided into data pick-up, information sensor and knowledge sensor, acquires data, information and knowledge these three classes respectively
The resource of type, and collected resource collection is defined as RES:={ RESD, RESI, RESK, the scale of every kind of resource is
Amt={AmtD, AmtI, AmtK, implement step are as follows:
Step 1) corresponds to step 001 in Fig. 2, obtains the collected data of sensor group, the money of information and knowledge type
Source instance set RES;
Step 2 corresponds to step 002 in Fig. 2, calculates direct transimission and storage resource collection according to formula 1 and formula 2
The cost of RES:
(1)
(2)
Wherein CostTRDIndicate the atom cost of unit of transfer's data resource, CostTRIIndicate unit of transfer's information resources
Atom cost, CostTRKIndicate the atom cost of unit of transfer's knowledge resource, wherein STCostDIndicate storage cell data money
The atom cost in source, STCostIIndicate the atom cost of storage cell information resources, STCostKIndicate storage cell knowledge resource
Atom cost;
Step 3) corresponds to step 003 in Fig. 2, successively takes Type to element each in RESDIKIn value, 004 calculate money
Source Type switching cost (CostMT):
(3)
Wherein k indicates that the scale for carrying out type conversion accounts for the specific gravity of resource original scale, and TCost indicates that unit resource type turns
The atom cost changed, value include { TCostD-D, TCostD-I, TCostD-K, TCostI-D, TCostI-I, TCostI-K,
TCostK-D, TCostK-I, TCostK-K};
Step 4) corresponds to step 005 in Fig. 2, to every kind of situation, according to the resource after the conversion of 4 computing resource type of formula
Scale Amt ' then 006 calculates the transmission cost and storage cost after type conversion:
(4)
WhereinIncrement after indicating the conversion of unit resource type, value includes AmtD-D, AmtD-I, AmtD-K,
AmtI-D, AmtI-I, AmtI-K, AmtK-D, AmtK-I, AmtK-K, indicate the rule that type conversion is carried out from i resource type
Mould accounts for the specific gravity of former scale;
Step 5) corresponds to step 007 in Fig. 2, and defining to the objective function of the limited model of network resource usage includes band
Two parameters of waiting time (WTime) that width is forwarded using equilibrium degree (UE_BW) and node resource, wherein bandwidth uses equilibrium degree
For the variance of bandwidth idleness (IRate_BW), bandwidth idleness and bandwidth use the calculation such as formula 5 and 6 of equilibrium degree:
(5)
(6)
Wherein BWijIt indicates from node i to the bandwidth of the link of node j, FijIndicate that the flow of chain road, l indicate average mark
Group length;
Step 6) corresponds to step 008 in Fig. 2, and the waiting time of resource forwarding includes forwarding waiting rate on one node
(WRate) and equilibrium degree (WEqu) is waited, waiting equilibrium degree is the variance of resource forwarding waiting rate, forwards waiting rate and waits equal
Weighing apparatus degree can be calculated according to regard to formula 7 and 8:
(7)
(8)
Wherein NiIndicate the average packet number for the resource that i-th of node need to forward, HiIndicate the buffer length of node i;
009 defines the optimization object function of Internet resources are as follows:
(9)
Wherein α and β respectively indicates bandwidth and uses equilibrium degree and wait the weight coefficient of equilibrium degree, can be trained by data
Out, the value of F is smaller, indicates that network flow distribution is more balanced;
Step 7) corresponds to step 010 in Fig. 2, carries out transmission two again after calculating direct transfer resource and tts resource type
Whether kind mode is all satisfied the limitation of the Internet resources such as bandwidth, transmission buffer;
If it is not, a kind of mode met is then selected to carry out resource processing, if being all satisfied, perform the next step;
Step 8) correspond to Fig. 2 in step 011,012 and 013, according to formula 10 calculate and more direct transfer resource and
The integrate-cost (Total_Cost) of transmission two ways is carried out after tts resource type again:
(10)
WhereinIndicate that the sum of resource transmission cost and storage cost account for the weight of integrate-cost,Indicate that resource type turns
Change the weight for accounting for integrate-cost;
If the cost of step 9) directly transfer resource is smaller, correspond to step 015 in Fig. 2, direct transimission and storage resource;
If the integrate-cost after tts resource type is smaller, correspond to Fig. 2 in step 014 and 015, according to resource types convert after transmission and
Set of memory resources.
Claims (1)
1. a kind of Internet of Things collection of resources transmission optimization system development method towards typing resource, is adopted using sensor network
Collection under special scenes with data (DataDIK), information (InformationDIK) and knowledge (KnowledgeDIK) these three shapes
Resource existing for formula has in Internet of Things transmission network kind by these resource transmissions to resource processing platform to solve internet of things
The contradiction of bandwidth and vast resources transmission demand is limited, by comparing direct transfer resource and first two kinds of transfer resource transmission after processing
The cost of scheme determines the transmission mode of resource, and the processing to resource mainly includes resource type conversion, to realize limited
Network bandwidth resources under dynamic resource allocation, improve network resource utilization and collected resource efficiency of transmission, will
Sensor is divided into data pick-up, information sensor and knowledge sensor, acquires data, information and knowledge these three types respectively
Resource, and collected resource collection is defined as RES:={ RESD, RESI, RESK, the scale of every kind of resource be Amt=
{AmtD, AmtI, AmtK, implement step are as follows:
Step 1) obtains the set of resource instances RES of the collected data of sensor group, information and knowledge type;
Step 2 calculates the cost of direct transimission and storage resource collection RES according to formula 1 and formula 2:
(1)
(2)
Wherein CostTRDIndicate the atom cost of unit of transfer's data resource, CostTRIIndicate the original of unit of transfer's information resources
Filial generation valence, CostTRKIndicate the atom cost of unit of transfer's knowledge resource, wherein STCostDIndicate storage cell data resource
Atom cost, STCostIIndicate the atom cost of storage cell information resources, STCostKIndicate the original of storage cell knowledge resource
Filial generation valence;
Step 3) successively takes Type to element each in RESDIKIn value, computing resource type switching cost (CostMT):
(3)
Wherein k indicates that the scale for carrying out type conversion accounts for the specific gravity of resource original scale, and TCost indicates the conversion of unit resource type
Atom cost, value include { TCostD-D, TCostD-I, TCostD-K, TCostI-D, TCostI-I, TCostI-K,
TCostK-D, TCostK-I, TCostK-K};
Step 4) is to every kind of situation, according to the resource extent Amt ' after the conversion of 4 computing resource type of formula, then calculates type and turns
Transmission cost and storage cost after changing:
(4)
WhereinIncrement after indicating the conversion of unit resource type, takes including AmtD-D, AmtD-I, AmtD-K,
AmtI-D, AmtI-I, AmtI-K, AmtK-D, AmtK-I, AmtK-K, indicate the rule that type conversion is carried out from i resource type
Mould accounts for the specific gravity of former scale;
Step 5), which is defined, to be included bandwidth using equilibrium degree (UE_BW) to the objective function of the limited model of network resource usage and saves
Two parameters of waiting time (WTime) of point resource forwarding, wherein bandwidth is bandwidth idleness (IRate_BW) using equilibrium degree
Variance, bandwidth idleness and bandwidth use the calculation such as formula 5 and 6 of equilibrium degree:
(5)
(6)
Wherein BWijIt indicates from node i to the bandwidth of the link of node j, FijIndicate that the flow of chain road, l indicate average mark group leader
Degree;
The waiting time of resource forwarding includes forwarding waiting rate (WRate) and waiting equilibrium degree to step 6) on one node
(WEqu), waiting equilibrium degree is the variance of resource forwarding waiting rate, and forwarding waiting rate and waiting equilibrium degree can be according to regard to 7 Hes of formula
8 calculate:
(7)
(8)
Wherein NiIndicate the average packet number for the resource that i-th of node need to forward, HiIndicate the buffer length of node i;
Define the optimization object function of Internet resources are as follows:
(9)
Wherein α and β respectively indicates bandwidth using the weight coefficient of equilibrium degree and waiting equilibrium degree, can be obtained by data training, F
Value it is smaller, indicate network flow distribution it is more balanced;
Step 7) carries out whether transmission two ways is all satisfied bandwidth, passes after calculating direct transfer resource and tts resource type again
The Internet resources limitation such as defeated caching;
If it is not, a kind of mode met is then selected to carry out resource processing, if being all satisfied, perform the next step;
Step 8) calculates according to formula 10 and carries out transmission two ways again after more direct transfer resource and tts resource type
Integrate-cost (Total_Cost):
(10)
WhereinIndicate that the sum of resource transmission cost and storage cost account for the weight of integrate-cost,Indicate that resource type conversion accounts for
The weight of integrate-cost;
Step 9) selects the lesser scheme transmission of integrate-cost and set of memory resources.
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