CN113163419A - Resource scheduling system of high-speed coverage network of power system - Google Patents

Abstract

The invention relates to a resource scheduling system of a high-speed coverage network of a power system, which comprises: the system comprises a configuration module, a broadcast module, a measurement module and a scheduling module, wherein the configuration module is responsible for configuring the number of baseband carriers, the number of radio frequency carriers and radio frequency carrier configuration information and outputting the carrier configuration information to the broadcast module, the measurement module and the scheduling module; the broadcasting module is responsible for broadcasting carrier configuration information related to the base station; the measurement module is responsible for acquiring the quality values of the terminal side and the base station side on each carrier, calculating the comprehensive quality value and outputting the comprehensive quality value to the scheduling module; the scheduling module realizes the optimal mapping from the baseband carrier to the radio frequency carrier based on the spectrum optimal principle, and ensures the effectiveness of transmission; according to the invention, the limitation of the baseband carrier capacity is broken, and the optimal radio frequency carrier resource is selected in the range of the maximum radio frequency capacity working bandwidth in real time to bear the baseband carrier data based on the radio cognitive technology, so that the transmission rate is increased, and the application requirement of high throughput of the power system fusion network is met.

Description

Resource scheduling system of high-speed coverage network of power system

Technical Field

The invention relates to the field of high-speed communication scheduling of an electric power system, in particular to a resource scheduling system of a high-speed coverage network of the electric power system.

Background

With the advancement of social informatization, the requirements of interconnection of everything and immediate sharing of information spread in various industries, taking an electric power system as an example, various application requirements such as various sensing data acquisition and feedback, high-definition video monitoring and feedback, visual scheduling management communication, video conference communication, remote operation assistance communication, office mutual sharing communication, data collection communication, robot interconnection communication and the like exist, and the related application requirements have a fusion concurrency characteristic, so that an overlay network is required to provide a higher-speed access capability to meet the application requirement of high bandwidth under fusion communication.

Obviously, how to effectively and fully utilize spectrum resources is the most critical ring for providing an overlay network with high-rate service capability, however, in the prior art, the management of spectrum resources is mainly completed by using a method of static allocation or semi-static allocation (dynamic selection is performed during power-on initialization, and then spectrum resources are kept unchanged until next power-on initialization is changed), so that the optimal spectrum resources cannot be selected for communication in real time according to the surrounding environment, and finally the rate of the overlay system is not changed. Therefore, it is a problem to be solved in the industry to provide a spectrum resource scheduling system that can adapt to the surrounding environment and select the optimal spectrum for communication in real time.

Disclosure of Invention

The technical problem to be solved by the invention is as follows: the invention overcomes the defects of the prior art and provides a resource scheduling system of a high-speed coverage network of a power system.

The technical scheme adopted by the invention for solving the problems in the prior art is as follows:

the invention provides a resource scheduling system of a high-speed coverage network of a power system, which comprises: the system comprises a configuration module, a broadcast module, a measurement module and a scheduling module, wherein the functions of the modules are as follows:

a configuration module: the module is responsible for configuring the number of baseband carriers, the number of radio frequency carriers and radio frequency carrier configuration information and outputting the carrier configuration information to the broadcasting module, the measuring module and the scheduling module;

a broadcasting module: the module is responsible for broadcasting carrier configuration information related to the base station;

a measurement module: the module is responsible for acquiring the quality values of the terminal side and the base station side on each carrier, calculating the comprehensive quality value and outputting the comprehensive quality value to the scheduling module;

a scheduling module: the module realizes the optimal mapping from the baseband carrier to the radio frequency carrier based on the spectrum optimal principle, and ensures the effectiveness of transmission;

the method for scheduling resources by the mutual cooperation of the configuration module, the broadcast module, the measurement module and the scheduling module comprises the following steps:

step 1: the configuration module configures the baseband carrier number P of the scheduling module, determines the radio frequency carrier number K and the radio frequency carrier configuration according to the radio frequency working bandwidth and the carrier bandwidth, sends carrier configuration information to the measurement module, and sends the carrier configuration information to a terminal residing in the base station through the broadcast module;

step 2: the measuring module generates the quality coefficient Q of each terminal on each radio frequency carrier wave on each TTI according to the measuring result_t,m,nThe TTI is a transmission interval;

and step 3: the scheduling module determines a terminal set A scheduled by the current TTI according to a scheduling algorithm;

and 4, step 4: the scheduling module is according to Q_t,m,nAnd scheduling the terminal set A to P radio frequency carrier resources for data transmission.

Preferably, in step 1, the method for determining the number K of radio frequency carriers and the configuration of the radio frequency carriers includes:

step 1.1, reading information from a database, and determining the group number G of carriers and the frequency offset value FreqOffset _ G of each group of carriers in a radio frequency working bandwidth, wherein G takes the values of 1,.

Step 1.2, selecting a carrier group j which is not configured, and completing the radio frequency carrier number K and the radio frequency carrier configuration: in the radio frequency working bandwidth, taking FreqOffset _ j as a starting point, taking the carrier bandwidth as a stepping, intercepting the maximum number of radio frequency carriers not exceeding the maximum frequency of the radio frequency working bandwidth as the carrier number K of the carrier group, and determining the configuration information of each radio frequency carrier in the carrier group, wherein the configuration information at least comprises an initial frequency point and bandwidth information;

and 1.3, judging whether all carrier wave groups are configured or not, if so, ending, and otherwise, skipping to the step 1.2.

Preferably, in the step 2, Q is_t,m,nThe method is obtained by weighting the downlink quality value of a plurality of TTIs before the time t of the radio frequency carrier n measured by the terminal m and the uplink quality value of a plurality of TTIs before the time t of the radio frequency carrier n measured by the base station by the measuring module.

Preferably, in step 3, the scheduling algorithm includes any one or a combination of Qos service level scheduling, RR polling scheduling, and PF proportional-average scheduling algorithm.

Preferably, in step 3, the scheduled terminal set a is a sum of terminals scheduled in total in the current TTI in all carriers managed by the scheduling module.

Preferably, in step 4, the scheduling of the terminal set a to P radio frequency carrier resources for data transmission includes:

step 4.1, selecting one carrier set s which is not subjected to transmission efficiency evaluation;

4.2, sequencing the terminal according to the quality coefficients from high to low corresponding to each carrier in the carrier group to obtain a terminal quality coefficient list of each carrier;

4.3, sequentially selecting the carrier with the highest quality coefficient for each terminal in the terminal set A;

step 4.4, adding the quality coefficients in the terminal quality coefficient list of each carrier in the carrier group to obtain the sum of the quality coefficients C _ SumQuality, and selecting the P carriers with the highest C _ SumQuality;

step 4.5, distributing each terminal in the terminal set A to the P carriers determined in the step 4.4 according to the Quality optimal matching principle, when the number of terminals distributed by a certain carrier exceeds the preset number, not distributing the carrier, and adding the Quality coefficients of the terminal A under the P carriers to obtain the comprehensive Quality value Quality _ g of the carrier group;

step 4.6, judging whether all carrier groups finish transmission efficiency evaluation, if so, skipping to step 4.7, and if not, skipping to step 4.1;

and 4.7, selecting the carrier group with the largest value in the Quality _ g, and finishing the carrier scheduling operation of the terminal according to the P carriers distributed by the terminal set A corresponding to the Quality _ g of the carrier group and the terminal distributed on each carrier as a scheduling result.

Compared with the prior art, the invention has the following beneficial effects:

according to the invention, the limitation of baseband carrier capacity is broken through, and based on a radio cognitive technology, the optimal radio frequency carrier resource is selected in real time within the working bandwidth range of the maximum radio frequency capacity to carry baseband carrier data, so that the transmission rate is improved, the application requirement of high throughput of a power system fusion network is met, and the aim of multi-dimensional fusion communication of the power system is fulfilled.

Drawings

The invention is further illustrated with reference to the following figures and examples.

Figure 1 is a flow chart of the method of the present invention,

FIG. 2 is a schematic diagram of the system of the present invention.

Detailed Description

In order to make the technical solution and the advantages of the present invention clearer, the following explains embodiments of the present invention in further detail.

As shown in fig. 1 and fig. 2, the present invention provides a resource scheduling system for a high-rate coverage network of an electric power system, including: the system comprises a configuration module, a broadcast module, a measurement module and a scheduling module, wherein the functions of the modules are as follows:

a configuration module: the module is responsible for configuring the number of baseband carriers, the number of radio frequency carriers and radio frequency carrier configuration information and outputting the carrier configuration information to the broadcasting module, the measuring module and the scheduling module;

a broadcasting module: the module is responsible for broadcasting carrier configuration information related to the base station;

a measurement module: the module is responsible for acquiring the quality values of the terminal side and the base station side on each carrier, calculating the comprehensive quality value and outputting the comprehensive quality value to the scheduling module;

a scheduling module: the module realizes the optimal mapping from the baseband carrier to the radio frequency carrier based on the spectrum optimal principle, and ensures the effectiveness of transmission;

the method for scheduling resources by the mutual cooperation of the configuration module, the broadcast module, the measurement module and the scheduling module comprises the following steps:

step 1: the configuration module configures the baseband carrier number P of the scheduling module, determines the radio frequency carrier number K and the radio frequency carrier configuration according to the radio frequency working bandwidth and the carrier bandwidth, sends carrier configuration information to the measurement module, and sends the carrier configuration information to a terminal residing in the base station through the broadcast module;

step 2: the measuring module generates the quality coefficient Q of each terminal on each radio frequency carrier wave on each TTI according to the measuring result_t,m,nThe TTI is a transmission interval;

and step 3: the scheduling module determines a terminal set A scheduled by the current TTI according to a scheduling algorithm;

and 4, step 4: the scheduling module is according to Q_t,m,nAnd scheduling the terminal set A to P radio frequency carrier resources for data transmission.

The invention also provides a resource scheduling method of the high-speed coverage network of the power system, and the steps of the method are consistent with the steps 1 to 4.

The number of baseband carriers in step 1 describes the processing capacity of the baseband.

Preferably, in step 1, the method for determining the number K of radio frequency carriers and the configuration of the radio frequency carriers includes:

step 1.1, reading information from a database, and determining the group number G of carriers and the frequency offset value FreqOffset _ G of each group of carriers in a radio frequency working bandwidth, wherein G takes the values of 1,.

Step 1.2, selecting a carrier group j which is not configured, and completing the radio frequency carrier number K and the radio frequency carrier configuration: in the radio frequency working bandwidth, taking FreqOffset _ j as a starting point, taking the carrier bandwidth as a stepping, intercepting the maximum number of radio frequency carriers not exceeding the maximum frequency of the radio frequency working bandwidth as the carrier number K of the carrier group, and determining the configuration information of each radio frequency carrier in the carrier group, wherein the configuration information at least comprises an initial frequency point and bandwidth information; for example, the rf operating bandwidth is 500Mhz, the frequency offset of the current carrier group is 50Mhz, and the carrier bandwidth is 100Mhz, then 50Mhz-150Mhz is the first rf carrier of the carrier group, 150Mhz-250Mhz is the second rf carrier of the carrier group, 250Mhz-350Mhz is the third rf carrier of the carrier group, and 350Mhz-450Mhz is the fourth rf carrier of the carrier group, since the bandwidth of 450Mhz plus 100Mhz already exceeds the maximum frequency of the rf operating bandwidth, which is 500Mhz, the carrier group can only be divided into four rf carriers.

And 1.3, judging whether all carrier wave groups are configured or not, if so, ending, and otherwise, skipping to the step 1.2.

The carrier group describes the total number of carriers supported by a fixed frequency offset in the working frequency band of the radio frequency end.

In the step 2, the Q_t,m,nThe method is obtained by weighting the downlink quality value of a plurality of TTIs before the time t of the radio frequency carrier n measured by the terminal m and the uplink quality value of a plurality of TTIs before the time t of the radio frequency carrier n measured by the base station by the measuring module.

The signal quality is determined by comprehensively determining RSRP, SINR, RSSI, RSRQ, and the like, where RSRP is reference signal received power, SINR is signal-to-interference-plus-noise ratio, RSSI is signal received strength indication, and RSRQ is reference signal received quality.

The downlink quality value is Q1, the uplink quality value is Q2, and the Q is_t,m,nEqual to Q1P 1+ Q2P 2, P1 and P2 are weighted proportions.

In step 3, the scheduling algorithm includes any one or a combination of Qos service level scheduling, RR polling scheduling, and PF proportional average scheduling algorithm.

The Qos service level scheduling enables different data streams to obtain different levels of service by controlling the use of different types of packets on a link broadband. The basic idea of RR polling scheduling is to consider that the scheduling priorities of all terminals are equal, and all terminals are scheduled periodically, so as to ensure that the scheduling probability of each terminal user is the same. The idea of the PF proportional-average scheduling algorithm is to satisfy the high-speed data service requirement of a terminal with good channel quality as much as possible, and also consider the use experience of a terminal with poor channel quality. The basic idea of the algorithm is that the ratio of the instantaneous rate to the long-term average rate is considered when selecting the terminal, and meanwhile, different terminals are adjusted by utilizing the weight value, so that the purpose of simultaneously considering the system performance and the user experience is achieved.

In step 3, the scheduled terminal set a is a total number of terminals scheduled in the current TTI under all carriers managed by the scheduling module.

In step 4, the method of scheduling the terminal set a to P radio frequency carrier resources for data transmission includes:

step 4.1, selecting one carrier set s which is not subjected to transmission efficiency evaluation;

4.2, sequencing the terminal according to the quality coefficients from high to low corresponding to each carrier in the carrier group to obtain a terminal quality coefficient list of each carrier;

4.3, sequentially selecting the carrier with the highest quality coefficient for each terminal in the terminal set A;

step 4.4, adding the quality coefficients in the terminal quality coefficient list of each carrier in the carrier group to obtain the sum of the quality coefficients C _ SumQuality, and selecting the P carriers with the highest C _ SumQuality;

step 4.5, distributing each terminal in the terminal set A to the P carriers determined in the step 4.4 according to the Quality optimal matching principle, when the number of terminals distributed by a certain carrier exceeds the preset number, not distributing the carrier, and adding the Quality coefficients of the terminal A under the P carriers to obtain the comprehensive Quality value Quality _ g of the carrier group;

step 4.6, judging whether all carrier groups finish transmission efficiency evaluation, if so, skipping to step 4.7, and if not, skipping to step 4.1;

and 4.7, selecting the carrier group with the largest value in the Quality _ g, and finishing the carrier scheduling operation of the terminal according to the P carriers distributed by the terminal set A corresponding to the Quality _ g of the carrier group and the terminal distributed on each carrier as a scheduling result.

The following describes a specific embodiment of a resource scheduling system of a high-rate coverage network of an electric power system with specific embodiments:

example (b): in this embodiment, the value of the baseband carrier number P is 2, the radio frequency operating bandwidth is 2000Mhz-2500Mhz, the carrier bandwidth is 100Mhz, the number G of carrier group is equal to 2, wherein the frequency offset value FreqOffset _1 of the 1 st group of carriers in the radio frequency operating bandwidth is equal to 0 Mhz; the frequency offset value FreqOffset _2 of the 2 nd group carrier within the radio frequency operating bandwidth is equal to 50Mhz, so from step 1.1 to step 1.3, it can be obtained:

for the carrier group 1, five carriers are included, that is, the first carrier (corresponding to G1_ C1 in table 1) in the carrier group 1 has an initial frequency point of 2000Mhz and a bandwidth of 100Mhz, the second carrier has an initial frequency point of 2100Mhz and a bandwidth of 100Mhz (corresponding to G1_ C2 in table 1), the third carrier has an initial frequency point of 2200Mhz and a bandwidth of 100Mhz (corresponding to G1_ C3 in table 1), the fourth carrier has an initial frequency point of 2300Mhz and a bandwidth of 100Mhz (corresponding to G1_ C4 in table 1), and the fifth carrier has an initial frequency point of 2400Mhz and a bandwidth of 100Mhz (corresponding to G1_ C5 in table 1);

for the carrier group 2, since FreqOffset _2 is equal to 50Mhz, carriers are taken from 2050Mhz, and since the carrier bandwidth is 100Mhz, the maximum number of carriers taken is four (because the fifth carrier already exceeds the maximum frequency 2500 Mhz), that is, the carrier group 2 includes four carriers, that is, the first carrier in the carrier group 2 (corresponding to G2_ C1 in table 1) has an initial frequency point of 2050Mhz and a bandwidth of 100Mhz, the second carrier has an initial frequency point of 2150Mhz and a bandwidth of 100Mhz (corresponding to G2_ C2 in table 1), the third carrier has an initial frequency point of 2250Mhz and a bandwidth of 100Mhz (corresponding to G2_ C3 in table 1), and the fourth carrier has an initial frequency point of 2350Mhz and a bandwidth of 100Mhz (corresponding to G2_ C4 in table 1).

If the current TTI exists, the measurement module obtains the quality value of each terminal under each carrier according to the uplink and downlink measurement results, such as Q in Table 1_t,m,nAs shown in the column, in this embodiment, the scheduling algorithm uses Qos, three terminals are scheduled per carrier in each TTI, that is, the total number of terminals scheduled in the current TTI of two carriers is six, and it is assumed that six terminals (corresponding to the terminal set a) scheduled in the current TTI are: terminal 1, terminal 2, terminal 3, terminal 4, terminal 5, terminal 6;

then, the scheduling of the terminal is completed according to the steps 4.1 to 4.7:

taking carrier group 1 as an example, first, in each carrier in the carrier group, the terminals are sorted according to the quality coefficients from high to low to obtain a terminal quality coefficient list of each carrier, and Q in table 1 is obtained_t,m,nThe results of the columns; then, selecting the carrier with the highest quality coefficient for each terminal in the terminal set A in sequence to obtain a result of selecting the carrier with the highest quality coefficient for each terminal in the terminal set A in the list 1; then, P carriers with the highest sum of quality coefficients in the carriers and C _ SumQuality are selected from the carrier group, and the C _ SumQuality column in table 1 is a recovery background frame part, namely, two carriers G1_ C1 and G1_ C3; then, each terminal in terminal set a is allocated to P carriers according to the quality optimal matching principle, wherein, when the carrier allocation of terminal 4 is performed after the carrier allocation of terminal 1, terminal 2, and terminal 3 is completed, although the quality of terminal 4 on carrier G1_ C1 is better than that of carrier G1_ C3, at most 3 terminals can be scheduled by one carrier, therefore, terminal 4 can only be allocated to carrier G1_ C3, and so on, the carrier allocation of terminal 5 and terminal 6 is completed, and the allocation result is detailed in "each terminal in terminal set a is according to the quality optimal matching principle" in table 1,allocating to P carriers to remove columns; next, calculating the sum of the Quality values of the carriers where the terminals are located to obtain a comprehensive Quality value Quality _1 of the carrier group 1, wherein the value is 127;

the operation process of the carrier 2 is the same as that of the carrier 1, the relevant data in the operation process is shown in table 1, and finally the comprehensive Quality value Quality _2 of the carrier group 2 is obtained, and the value is 148;

finally, the sizes of Quality _2 and Quality _1 are compared, and since Quality _2 is greater than Quality _1, two carriers (i.e., G2_ C1 and G2_ C2) allocated to terminal set a in carrier group 2 are used as scheduling results, i.e., terminal 1, terminal 2 and terminal 3 are scheduled to carrier G2_ C1 in the current TTI, and terminal 4, terminal 5 and terminal 6 are scheduled to carrier G2_ C2. It can be seen from this embodiment that, by using the method of the present invention, the optimal spectrum can be selected in real time for data transmission, thereby effectively increasing the transmission rate. Compared with the prior art, if after power-on initialization and according to initial frequency point self-optimization, the base station selects G2_ C3 and G2_ C4 as working carriers, and as time goes on, the surrounding interference environment changes, taking TTI shown in table 1 as an example, then in G2_ C3 and G2_ C4, according to the optimal adaptation principle, terminal 1, terminal 2 and terminal 3 are allocated to carrier G2_ C4, and terminal 4, terminal 5 and terminal 6 are allocated to carrier G2_ C3, then Quality _2 is: 12+12+10+2+2 equals 40, and the quality value obtained by the invention is 148, compared with the prior art, the rate of the invention is improved by times, obviously, the method of the invention has obvious advantages compared with the prior art, and the method can effectively meet the requirements of high bandwidth and high throughput of converged communication.

It can be seen from the above embodiments that, by using the method of the present invention, the limitation of baseband carrier capability is broken, and based on the radio cognitive technology, the optimal radio frequency carrier resource is selected in real time within the range of the radio frequency maximum capability working bandwidth to carry baseband carrier data, thereby increasing the transmission rate, satisfying the application requirement of high throughput of the power system converged network, and achieving the goal of multidimensional converged communication of the power system.

Table 1 example process data schematic

The embodiments of the present invention have been described in detail with reference to the drawings, but the present invention is not limited to the above embodiments, and various changes can be made within the knowledge of those skilled in the art without departing from the gist of the present invention.

Claims (6)

Translated fromChinese

1.一种电力系统高速率覆盖网络的资源调度系统，其特征在于，包括：配置模块、广播模块、测量模块、调度模块，各模块的功能如下：1. a resource scheduling system of a power system high-speed overlay network is characterized in that, comprising: a configuration module, a broadcast module, a measurement module, a scheduling module, and the functions of each module are as follows:配置模块：该模块负责配置基带载波数、射频载波数及射频载波配置信息，并把所述载波配置信息输出给广播模块、测量模块、调度模块；Configuration module: This module is responsible for configuring the number of baseband carriers, the number of radio frequency carriers, and the configuration information of radio frequency carriers, and outputs the carrier configuration information to the broadcasting module, the measurement module, and the scheduling module;广播模块：该模块负责广播本基站所涉及的载波配置信息；Broadcast module: This module is responsible for broadcasting the carrier configuration information involved in the base station;测量模块：该模块负责获取终端侧及基站侧在各个载波上的质量值，并计算综合质量值，输出给调度模块；Measurement module: This module is responsible for obtaining the quality values of the terminal side and the base station side on each carrier, calculating the comprehensive quality value, and outputting it to the scheduling module;调度模块：该模块基于频谱最优原则，实现基带载波往射频载波的最优映射，保证传输的有效性；Scheduling module: Based on the principle of optimal spectrum, this module realizes the optimal mapping from baseband carrier to radio frequency carrier to ensure the validity of transmission;所述配置模块、广播模块、测量模块、调度模块相互配合进行资源调度的方法步骤为：The method steps of the configuration module, the broadcast module, the measurement module and the scheduling module to cooperate with each other to perform resource scheduling are:步骤1：配置模块配置调度模块基带载波数P，并根据射频工作带宽及载波带宽，确定射频载波数量K及射频载波配置，并把载波配置信息发送给测量模块，同时通过广播模块把所述载波配置信息发送给驻留于本基站下的终端；Step 1: The configuration module configures the baseband carrier number P of the scheduling module, and determines the number of radio frequency carriers K and the radio frequency carrier configuration according to the working bandwidth of the radio frequency and the carrier bandwidth, and sends the carrier configuration information to the measurement module. The configuration information is sent to the terminal residing under the base station;步骤2：测量模块根据测量结果，产生各TTI上各终端在各射频载波的质量系数Q_t,m,n，所述TTI为传输间隔；Step 2: the measurement module generates, according to the measurement result, the quality coefficient Q_t,m,n of each terminal on each radio frequency carrier on each TTI, where the TTI is the transmission interval;步骤3：调度模块根据调度算法确定当前TTI所调度的终端集A；Step 3: The scheduling module determines the terminal set A scheduled by the current TTI according to the scheduling algorithm;步骤4：调度模块根据Q_t,m,n，把终端集A调度到P个射频载波资源进行数据传输。Step 4: The scheduling module schedules the terminal set A to P radio frequency carrier resources for data transmission according to Q_t,m,n .2.根据权利要求1所述的一种电力系统高速率覆盖网络的资源调度系统，其特征在于：2. The resource scheduling system of a power system high-speed overlay network according to claim 1, characterized in that:所述步骤1中，所述确定射频载波数量K及射频载波配置的方法为：In the step 1, the method for determining the number K of radio frequency carriers and the configuration of radio frequency carriers is:步骤1.1、从数据库读取信息，确定载波组组数G及每组载波在射频工作带宽内的频率偏移值FreqOffset_g，g取值1、...、G；Step 1.1, read the information from the database, determine the number of carrier groups G and the frequency offset value FreqOffset_g of each group of carriers within the radio frequency working bandwidth, and the value of g is 1, . . . , G;步骤1.2、选取未完成配置的一个载波组j，完成射频载波数量K及射频载波配置：在射频工作带宽内，以FreqOffset_j为起点，以载波带宽为步进，截取不超过射频工作带宽最大频率的最大射频载波个数作为该载波组的载波数量K，并确定该载波组中各射频载波的配置信息，所述配置信息至少包括起始频点及带宽信息；Step 1.2. Select a carrier group j that has not yet been configured, and complete the number of radio frequency carriers K and the radio frequency carrier configuration: within the radio frequency working bandwidth, take FreqOffset_j as the starting point, and take the carrier bandwidth as the step, and intercept the frequency that does not exceed the maximum frequency of the radio frequency working bandwidth. The maximum number of radio frequency carriers is used as the number of carriers K of the carrier group, and the configuration information of each radio frequency carrier in the carrier group is determined, and the configuration information at least includes the starting frequency point and bandwidth information;步骤1.3、判定是否所有载波组已经完成配置，如果是，则结束，如果否，则跳转到步骤1.2。Step 1.3, determine whether all carrier groups have been configured, if yes, end, if not, jump to step 1.2.3.根据权利要求1所述的一种电力系统高速率覆盖网络的资源调度系统，其特征在于：3. The resource scheduling system of a power system high-speed overlay network according to claim 1, characterized in that:所述步骤2中，所述Q_t,m,n由测量模块根据终端m测量射频载波n在t时刻之前若干个TTI的下行质量值和基站测量射频载波n在t时刻之前若干个TTI的上行质量值加权得到。In the step 2, the Q_{t, m, n} are measured by the measurement module according to the terminal m to measure the downlink quality value of the radio frequency carrier n several TTIs before time t and the base station to measure the uplink of several TTIs of the radio frequency carrier n before the time t. The quality value is weighted.4.根据权利要求1所述的一种电力系统高速率覆盖网络的资源调度系统，其特征在于：4. The resource scheduling system of a power system high-speed overlay network according to claim 1, wherein:所述步骤3中，所述调度算法包括Qos服务等级调度、RR轮询调度、PF比例平均调度算法中的任一一种或几种的组合。In the step 3, the scheduling algorithm includes any one or a combination of QoS service level scheduling, RR round-robin scheduling, and PF proportional average scheduling algorithm.5.根据权利要求4所述的一种电力系统高速率覆盖网络的资源调度系统，其特征在于：5. The resource scheduling system of a power system high-speed overlay network according to claim 4, characterized in that:所述步骤3中，所述调度的终端集A，为调度模块所管理的所有载波下，当前TTI总共调度的终端总和。In the step 3, the scheduled terminal set A is the sum of the total scheduled terminals in the current TTI under all carriers managed by the scheduling module.6.根据权利要求1所述的一种电力系统高速率覆盖网络的资源调度系统，其特征在于：6. The resource scheduling system of a power system high-speed overlay network according to claim 1, wherein:所述步骤4中，把终端集A调度到P个射频载波资源进行数据传输的做法为：In the step 4, the method of scheduling the terminal set A to P radio frequency carrier resources for data transmission is as follows:步骤4.1、选取其中一个还没进行传输效率评估的载波组s；Step 4.1, select one of the carrier groups s for which transmission efficiency evaluation has not been performed;步骤4.2、对应该载波分组中的各个载波，依据质量系数从高到低对终端进行排序得到各载波的终端质量系数列表；Step 4.2. Corresponding to each carrier in the carrier group, sort the terminals according to the quality coefficient from high to low to obtain the terminal quality coefficient list of each carrier;步骤4.3、依次为终端集A中每一个终端选择质量系数最高的载波；Step 4.3: Select the carrier with the highest quality coefficient for each terminal in the terminal set A in turn;步骤4.4、将本载波组内各载波的终端质量系数列表中的质量系数相加得到质量系数之和C_SumQuality，选取C_SumQuality最高的P个载波；Step 4.4, add the quality coefficients in the terminal quality coefficient list of each carrier in this carrier group to obtain the sum of the quality coefficients C_SumQuality, and select the P carriers with the highest C_SumQuality;步骤4.5、把终端集A中各个终端按照质量最优匹配原则，分配到步骤4.4所确定的P个载波去，当某个载波所分配的终端数超过预设数量，则不再分配给该载波，并把终端A在P各载波下的质量系数相加得到所述载波组的综合质量值Quality_g；Step 4.5: All terminals in terminal set A are allocated to the P carriers determined in step 4.4 according to the principle of optimal quality matching. When the number of terminals allocated to a carrier exceeds the preset number, it will no longer be allocated to the carrier. , and add the quality coefficients of terminal A under each carrier of P to obtain the comprehensive quality value Quality_g of the carrier group;步骤4.6、判定是否所有载波组已完成传输效率评估，如果是，则跳转到步骤4.7.如果否，则跳转到步骤4.1；Step 4.6, determine whether all carrier groups have completed the transmission efficiency evaluation, if so, skip to step 4.7. If not, skip to step 4.1;步骤4.7、选取Quality_g中取值最大的载波组，根据该载波组Quality_g所对应终端集A所分配的P个载波及每个载波上所分配的终端作为调度结果，以此完成终端的载波调度运算。Step 4.7, select the carrier group with the largest value in Quality_g, and use the P carriers allocated by the terminal set A corresponding to the carrier group Quality_g and the terminals allocated on each carrier as the scheduling result, so as to complete the carrier scheduling operation of the terminal. .

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