CN111404831A - Method and system for improving processing performance of wind control system - Google Patents
Method and system for improving processing performance of wind control system Download PDFInfo
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- H04—ELECTRIC COMMUNICATION TECHNIQUE
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- H04L47/00—Traffic control in data switching networks
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Abstract
The invention relates to the field of data information processing systems, in particular to a method and a system for improving the processing performance of a wind control system, which solve the technical problems of synchronous waiting of service requests and waste of computing resources of the wind control system caused by synchronous calling and serial computing of the system, and comprise a front-end application platform for initiating the service requests, a wind control computing module for receiving the computing requests and then carrying out operation to obtain computing results, a wind control front-end module and a storage module; the wind control front module comprises a synchronous return unit, a wind control process unit and an asynchronous notification unit. The invention divides the synchronous processing logic of the service request into three asynchronous processing logics, thereby achieving the overall asynchronous processing effect; the operation process of the wind control calculation module is not influenced by the flow fluctuation condition of the service request, peak clipping and valley filling of the flow of the service request are realized, and the operation resources of the wind control calculation module are fully utilized.
Description
Technical Field
The invention relates to the field of data information processing systems, in particular to a method and a system for improving the processing performance of a wind control system.
Background
The essence of finance is risk management, and risk control is the core of all financial businesses. Risk control refers to the risk manager taking various measures and methods to eliminate or reduce the various possibilities of occurrence of a risk event, or the risk controller reducing the losses incurred when a risk event occurs. The wind control service system uses synchronous logic to calculate wind control rules in an in-line system, and the synchronous process comprises the steps that a front-end application platform initiates a request; link platform parameter assembly and protocol conversion; the wind control gateway receives the request and calls a decision engine and a limit management center to calculate wind control rules; and returning a result to the front end after the calculation is finished.
Chinese patent publication No. CN109194586A discloses a peak clipping processing method based on a distributed token bucket, which includes: and a service request flow judgment step: judging whether the flow of the received service request exceeds a preset flow peak value or not, if the flow of the service request exceeds the flow peak value, sending the service request to an asynchronous message queue for queuing and waiting, and if the flow of the service request does not exceed the flow peak value, sending the service request to a lower-layer system; a service request processing step; an asynchronous message queue consumption step: and consuming the service request waiting in the queue, judging whether the flow of the consumed service request exceeds a flow peak value or not, and sending the service request to a lower-layer system for processing until the flow of the service request does not exceed the flow peak value.
The patent uses asynchronous blocking queues to buffer traffic requests for peak clipping and valley filling. However, the wind controller needs to use a decision engine or the like to perform rule calculation in the processing process, and the decision engine uses a serial mode in the rule calculation process, so that the average time consumption for processing the service request is long. The wind control system still processes the service requests by a synchronous logic process, and when a plurality of service requests are queued in sequence for processing, average time consumption for processing the service requests cannot be shortened, the utilization efficiency of synchronous processing on computing resources of the wind control system is low, and the computing resources of the wind control system are wasted. Buffering the traffic of service requests only in a blocking manner has a limited effect on improving the processing efficiency of the system, and the service requests can only wait in a blocking queue when the number of service requests is high. The existing wind control system processes a huge amount of service requests in a synchronous logic and serial computing mode, and cannot meet the increasing wind control service requirements in the prior art. Therefore, the prior art also has the problems of service request synchronous waiting and waste of computing resources of the wind control system caused by synchronous calling and serial computing of the wind control system.
Disclosure of Invention
The invention provides a method and a system for improving the processing performance of a wind control system, and solves the technical problems of synchronous waiting of service requests and waste of computing resources of the wind control system caused by synchronous calling and serial computing of the system.
The basic scheme provided by the invention is as follows: a lift system for wind control system processing performance, comprising:
front-end application platform: for initiating a service request;
the wind control front module: the system comprises a synchronous return unit, a wind control process unit and an asynchronous notification unit;
a synchronization return unit: the system comprises a service request processing module, a service processing module and a service processing module, wherein the service request processing module is used for processing the service request to obtain a standard request, and the standard request comprises parameters of various parameter types;
a storage module: for storing standard requests;
the synchronous return unit is also used for storing the standard request into the storage module and feeding back the state information of the standard request to the front-end application platform;
and a wind control process unit: the system comprises a storage module, a calculation module and a calculation module, wherein the storage module is used for storing standard requests and initiating calculation requests based on the standard requests;
the wind control calculation module: the device is used for calculating after receiving the calculation request to obtain a calculation result;
the wind control process unit is also used for acquiring a calculation result and storing the calculation result into the storage module;
an asynchronous notification unit: and the front-end application platform is used for acquiring the calculation result from the storage module and sending the calculation result to the front-end application platform.
The working principle and the advantages of the invention are as follows:
the method is characterized in that a wind control preposed module is additionally arranged between a front-end application platform and a wind control calculation module, when the front-end application platform of a calling party initiates a service request to a wind control party, a synchronous return unit processes parameters in the service request to obtain a standard request, the standard request is stored in a storage module, and then state information of the standard request is fed back to the front-end application platform, wherein the state information comprises transient information, the time point of the current time and the queuing number of the standard requests waiting for processing at present, such as the feedback of the transient information during processing. The standard request stored in the storage module is taken out by establishing a data acquisition task through the wind control process unit, and then the wind control process unit initiates a calculation request based on the standard request to the wind control calculation module. The wind control calculation module is used for receiving the calculation request and calling the wind control rule and the wind control source data to carry out calculation to obtain a calculation result. And the wind control process unit acquires the calculation result from the wind control calculation module and stores the calculation result in the storage module. And establishing another data acquisition task by the asynchronous notification unit to acquire the calculation result from the storage module, and finally distributing the calculation result to the front-end application platform of the calling party.
At present, in the prior art, various flow buffering algorithms are applied, an asynchronous blocking queue is adopted to buffer the flow of a service request, peak clipping and valley filling are carried out, a front-edge algorithm frame is very depended on, later maintenance is not facilitated, and if the frame algorithm has problems, the frame algorithm is not easy to find out and solve. The invention divides the synchronous processing logic of the service request into three asynchronous processing logics, thereby achieving the overall asynchronous processing effect.
When the flow of the service request is overlarge, the synchronous return unit processes to obtain a large number of standard requests, and the processing speed of the wind control computing module cannot keep up with the newly increased speed of the flow of the service request; the standard request is stored in the storage module and then is subsequently processed, so that the traffic of the standard request is intercepted; the storage module temporarily stores the standard requests which are not processed, and caches the flow of the redundant standard requests.
When the service request flow is too small, the newly increased speed of the service request flow cannot keep up with the processing speed of the wind control computing module to the computing request, and because the standard request is cached in the storage module, the wind control process unit performs flow compensation by acquiring the standard request cached in the storage module, so that the wind control process unit can still acquire a sufficient number of standard requests to initiate the computing request to the wind control computing module, and the idle time of the wind control computing module is reduced.
The invention adopts a preposed buffer technology, the wind control preposed module intercepts the flow of the service request and caches the flow in the storage module, and the synchronous processing logic of the service request is divided into three asynchronous processing logics, thereby achieving the overall asynchronous processing effect; the wind control calculation module obtains the cached standard request through the wind control process unit to carry out operation, the operation process of the wind control calculation module is not affected by the flow fluctuation condition of the service request, the flow peak clipping and valley filling of the wind control front-end module to the service request are realized, and the operation resources of the wind control calculation module are fully utilized.
The synchronous return unit also feeds back the state information of the standard request stored in the storage module to the front-end application platform, and leaves a trace of data storage, so that faults can be conveniently checked according to the state information, for example, after the synchronous return unit fails to process the service request, a corresponding standard request is not obtained, and at the moment, the front-end application platform can look up the state information to perform fault checking, find out the service request which is not normally processed, and is convenient to process in time.
The storage module further comprises a sorting module, the sorting module is used for sequentially sorting serial numbers for the standard requests according to the sequence of the storage time when the standard requests are stored, and the wind control process unit sequentially acquires the standard requests according to the serial numbers. And the acquisition order of the wind control process unit to the standard request is limited, and the stability of the acquisition process is improved.
Furthermore, the storage module also comprises a clustering module, the clustering module is used for identifying the parameter type of the parameter in the standard request to obtain an identification result, and the sequencing module adjusts the serial number of the standard request according to the identification result. The sequence number of the sequence is adjusted according to the parameter type of the standard request, so that the acquisition order of the standard request is conveniently adjusted.
Further, when the sequence number of the standard request is adjusted by the sorting module, the standard requests with the same parameter type are adjusted to be connected with each other according to the identification result. The standard requests with the same parameter type are gathered together and then acquired by the wind control process unit, so that the wind control calculation module can continuously process the parameters with the same type, and the calculation efficiency is improved.
Further, the sorting module groups the standard requests newly stored in the storage module according to the storage sequence, only adjusts the serial numbers of the standard requests in the same group, and the wind control process unit sequentially acquires the standard requests of each group according to the sequence. The method and the device have the advantages that the influence range of the serial number adjustment of the standard requests is narrowed, the workload of the sequencing module for adjusting the serial numbers is reduced, the excessive intervention on the acquisition sequence of the standard requests is avoided, and particularly the problem that the wind control process unit acquires the standard requests of the same parameter type for a long time to block the acquisition process of other standard requests is avoided.
Further, the clustering module configures sorting priorities for the parameter types respectively, and the sorting module sorts the standard requests according to the sorting priorities of the parameter types. The influence of individual important parameter types on the sequencing is improved, the sequencing priority is refined, the sequencing module can adjust the serial number of the standard request more conveniently, the acquisition sequence of the standard request can be further optimized, and the calculation efficiency of the wind control calculation module can be improved.
Further, the processing of the service request by the synchronous return unit includes assembling and integrating parameters in the service request and performing protocol conversion. The parameters in the service request are standardized through assembly integration and protocol conversion, so that the subsequent acquisition and calculation processes in the system are convenient to be compatible, and the processing efficiency of the service request is improved.
Further, the state information fed back to the front-end application platform by the synchronous return unit comprises prompt information in a waiting state and the number of standard requests currently waiting for calculation. The front-end application platform can timely know whether the service request is normally received by the wind control front-end module or not and timely learn the current waiting progress of the standard request.
Further, the asynchronous notification unit is in communication connection with a router, and the router redistributes the calculation result to the target front-end application platform. And the notification range of the calculation result is expanded, and the calculation result is ensured to be fed back to the front-end application platform in time.
Based on the system, the invention also provides a method for improving the processing performance of the wind control system, which comprises the following steps:
step 1, a front-end application platform initiates a service request;
step 2, the synchronous return unit processes the service request to obtain a standard request;
step 3, the synchronous return unit stores the standard request into the storage module and feeds back the state information of the standard request to the front-end application platform;
step 4, the wind control process unit acquires a standard request from the storage module and initiates a calculation request to the wind control calculation module based on the standard request;
step 5, the wind control calculation module receives the calculation request and then carries out calculation to obtain a calculation result;
step 6, the wind control process unit obtains a calculation result and stores the calculation result in a storage module;
and 7, the asynchronous notification unit acquires the calculation result from the storage module and sends the calculation result to the front-end application platform.
Drawings
Fig. 1 is a system block diagram of a first embodiment of a boost system for processing performance of a wind control system according to the present invention.
Fig. 2 is a system block diagram of a third embodiment of the enhancing system for processing performance of the wind control system according to the present invention.
Detailed Description
The following is further detailed by the specific embodiments:
an embodiment substantially as shown in figure 1:
the system for improving the processing performance of the wind control system comprises a front-end application platform, a storage module, a wind control front-end module and a wind control calculation module. The front-end application platform comprises a credit platform and a network credit platform and is used for calling parties to initiate service requests. The storage module adopts a 1280 high-density TaiShan server.
The wind control front-end module adopts a Key service Server Hua Kun L un 9008V 5, and comprises a synchronous return unit, a wind control process unit and an asynchronous notification unit.
The synchronous return unit is used for processing the service request to obtain a standard request, storing the standard request in the storage module and feeding back state information to the front-end application platform. The processing of the service request by the synchronous return unit comprises the steps of assembling and integrating parameters in the service request, converting protocols, standardizing parameter formats and unifying protocols. The state information fed back to the front-end application platform by the synchronization return unit comprises the transient message, the time point of the current time and the queuing number of the standard requests currently waiting for processing, such as the transient message "in processing" in the prompt of waiting state.
The wind control process unit is used for acquiring the standard request from the storage module and initiating a calculation request to the wind control calculation module based on the standard request, wherein the calculation request comprises parameters in the standard request. The wind control calculation module adopts a fusion Server Pro X6800 data center server, wind control rules and wind control source data are stored in the wind control calculation module, and after a calculation request is received, the wind control rules and the wind control source data are called to calculate the calculation request to obtain a calculation result. And then the wind control process unit acquires the calculation result from the wind control calculation module and stores the calculation result in the storage module.
The asynchronous notification unit is used for acquiring the calculation result from the storage module, is in communication connection with a Huacheng NetEngine20E-S service convergence router, and redistributes the calculation result to a target front-end application platform.
Based on the above system, this embodiment further provides a method for improving processing performance of a wind control system, including the following steps:
step 1, a front-end application platform initiates a service request;
step 2, the synchronous return unit processes the service request to obtain a standard request, wherein the processing of the service request comprises assembling and integrating parameters in the service request and protocol conversion, and parameter formats and unified protocols are standardized;
step 3, the synchronous return unit stores the standard request into the storage module and feeds back the state information of the standard request to the front-end application platform; the status information includes the transient message "in process", the point in time at the current time, and the number of queued standard requests currently waiting to be processed.
Step 4, the wind control process unit establishes a data acquisition task to acquire a standard request from the storage module, and initiates a calculation request to the wind control calculation module based on the standard request;
step 5, after receiving the calculation request, the wind control calculation module calls a wind control rule and wind control source data to perform operation to obtain a calculation result;
step 6, the wind control process unit obtains a calculation result and stores the calculation result in a storage module;
and 7, the asynchronous notification unit establishes another data acquisition task to acquire the calculation result from the storage module and distributes the calculation result to the front-end application platform.
In the embodiment, a pre-buffering technology is adopted, the wind control pre-module intercepts the traffic of the service request and caches the traffic in the storage module, and splits the synchronous processing logic of the service request into three asynchronous processing logics, so as to achieve the overall asynchronous processing effect; the wind control calculation module obtains the cached standard request through the wind control process unit to carry out operation, the operation process of the wind control calculation module is not influenced by the flow fluctuation condition of the service request, the peak clipping and valley filling of the wind control data calculation process are realized, and the operation resources of the wind control calculation module are fully utilized; in addition, the synchronous return unit feeds back the state information of the standard request stored in the storage module to the front-end application platform, leaves a trace of data storage, and is convenient for troubleshooting according to the state information.
Example two:
the difference between the second embodiment and the first embodiment is that the wind control process unit is further configured to count the same or similar conditions of the parameter types of the parameters of the two adjacent standard requests, which are sequentially obtained, to obtain comparison information, and the calculation request initiated by the wind control process unit further includes the comparison information. After the calculation result is obtained by the calculation of the wind control calculation module, the wind control rule and the wind control source data which need to be called continuously in the next calculation are retained according to the comparison information, so that the repeated calling times are reduced, and the calculation efficiency is improved.
EXAMPLE III
Substantially as shown in figure 2:
the difference between the third embodiment and the second embodiment is that the storage module further comprises a sorting module and a clustering module. The sorting module is used for sequentially arranging serial numbers for the standard requests when the standard requests are stored. The clustering module is used for identifying the parameter type of the standard request to obtain an identification result, the sequencing module adjusts the serial number of the standard request according to the identification result, and the wind control process unit sequentially obtains the standard request according to the serial number.
When the sequencing module adjusts the serial numbers of the standard requests, the standard requests with the same parameter types are adjusted to be connected with the serial numbers according to the identification result, in the part of the standard requests, the serial number of the standard request with the original serial number closest to the top before the serial number is adjusted is not changed, and other standard requests adaptively change the serial numbers. The sequencing module groups the newly stored standard requests into a group of 20 requests according to the storage sequence, sequentially arranges group serial numbers for each group, adjusts the serial numbers of the standard requests only in the same group, and sequentially acquires the standard requests of each group according to the sequence of the group serial numbers. In addition, the clustering module respectively configures sequencing priorities for the parameter types, and the sequencing module sequences the standard requests according to the sequencing priorities of the parameter types.
For example, the clustering module has the highest ranking priority for the parameter type configuration of the name of the audit object, and has the highest ranking priority for the parameter type configuration of the loan type of the audit object, when the ranking module ranks 20 standard requests in the same group (including 12 standard requests about a client and 8 standard requests about B client, and the current standard request with the top sequence number is the a1 standard request of the a client), the ranking module ranks the requests according to the name of the audit object, and adjusts the sequence numbers of the 12 standard requests about a client to be continuously adjacent according to the sequence order of the original sequence numbers, wherein the sequence number of a1 remains unchanged, and the sequence numbers of the rest standard requests about B client are also adjusted according to the sequence order of the original sequence numbers; the 12 th bit in the group is the standard a12 request of the A client, and the sequence number of the standard B1 request of the B client is behind the standard a12 request, and then the standard requests of the B client are sorted in the same way; and after finishing the sorting process according to the name of the examined object, respectively carrying out sorting adjustment in the same way on the standard requests of the client A and the client B according to the loan types. The 20 standard requests in the same group are ordered regularly in a mode of adjusting the serial number, so that the subsequent wind control calculation module can continuously process the parameters of the standard requests of the same type during calculation, and the calculation efficiency is improved.
The method limits the acquisition order of the wind control process unit to the standard request, and improves the stability of the acquisition process; the sequence number of the sequence is adjusted according to the parameter type of the standard request, so that the acquisition order of the standard request is conveniently adjusted; standard requests with the same parameter type are gathered together and then acquired by the wind control process unit, so that the wind control calculation module can continuously process the parameters with the same type, and the calculation efficiency is improved; the standard requests are grouped, so that the influence range of the standard requests on the adjustment of the serial numbers can be reduced, the workload of the sequencing module for adjusting the serial numbers is reduced, the excessive intervention on the acquisition sequence of the standard requests is avoided, and particularly, the problem that the wind control process unit acquires the standard requests of the same parameter type for a long time to block the acquisition process of other standard requests is avoided; the influence of individual important parameter types on the sequencing is improved, the sequencing priority is refined, the sequencing module can adjust the serial number of the standard request more conveniently, the acquisition sequence of the standard request can be further optimized, and the calculation efficiency of the wind control calculation module can be improved.
Example four
Different from the first embodiment, the system in the present embodiment further includes:
the incoming receiving unit receives an incoming service request;
the timing unit is used for recording the interval time t1 of receiving two adjacent same service requests of the same incoming piece; the timing unit is prestored with emergency waiting time t2, is used for comparing t1 with t2, and carries out emergency processing marking on the fed workpieces when repeated feeding requests occur twice continuously and t1 is greater than t 2;
the manual unit is used for displaying the incoming articles to an auditor for processing;
the identification unit is used for identifying whether the incoming piece has the emergency processing mark or not and pushing the incoming piece to the manual unit when the incoming piece is identified to have the emergency processing mark.
In the process of processing the service request, if the processing fails, prompting is carried out, and the client is allowed to select whether to process the incoming piece again. After receiving the prompt of processing failure, the user can choose to initiate the service incoming request again.
When the time t1 < t2 of receiving the repeat progress request indicates that the user is always paying attention to the progress of the progress, and when the progress fails, the repeat request is initiated immediately, and when the progress fails twice, the current degree of urgency of the user is serious. Therefore, the timing unit marks the incoming item for emergency processing. After the identification unit identifies the emergency processing unit, the screening unit pushes the emergency processing unit to the manual unit, and then a user's incoming request with a serious degree of urgency is processed more quickly.
the value of t2 can be set by those skilled in the art according to the processing capability of the system, and in this embodiment, t2 is 60 seconds.
The foregoing is merely an example of the present invention, and common general knowledge in the field of known specific structures and characteristics is not described herein in any greater extent than that known in the art at the filing date or prior to the priority date of the application, so that those skilled in the art can now appreciate that all of the above-described techniques in this field and have the ability to apply routine experimentation before this date can be combined with one or more of the present teachings to complete and implement the present invention, and that certain typical known structures or known methods do not pose any impediments to the implementation of the present invention by those skilled in the art. It should be noted that, for those skilled in the art, without departing from the structure of the present invention, several changes and modifications can be made, which should also be regarded as the protection scope of the present invention, and these will not affect the effect of the implementation of the present invention and the practicability of the patent. The scope of the claims of the present application shall be determined by the contents of the claims, and the description of the embodiments and the like in the specification shall be used to explain the contents of the claims.
Claims (10)
1. A lift system for handling performance of a wind control system, comprising:
front-end application platform: for initiating a service request;
the wind control front module: the system comprises a synchronous return unit, a wind control process unit and an asynchronous notification unit;
a synchronization return unit: the system comprises a service request processing module, a service processing module and a service processing module, wherein the service request processing module is used for processing the service request to obtain a standard request, and the standard request comprises parameters of various parameter types;
a storage module: for storing standard requests;
the synchronous return unit is also used for storing the standard request into the storage module and feeding back the state information of the standard request to the front-end application platform;
and a wind control process unit: the system comprises a storage module, a calculation module and a calculation module, wherein the storage module is used for storing standard requests and initiating calculation requests based on the standard requests;
the wind control calculation module: the device is used for calculating after receiving the calculation request to obtain a calculation result;
the wind control process unit is also used for acquiring a calculation result and storing the calculation result into the storage module;
an asynchronous notification unit: and the front-end application platform is used for acquiring the calculation result from the storage module and sending the calculation result to the front-end application platform.
2. The lift system for wind management system processing performance of claim 1, wherein: the storage module further comprises a sorting module, the sorting module is used for sequentially arranging serial numbers for the standard requests according to the sequence of the storage time when the standard requests are stored, and the wind control process unit sequentially acquires the standard requests according to the serial numbers.
3. The lift system for wind management system processing performance of claim 2, wherein: the storage module further comprises a clustering module, the clustering module is used for identifying the parameter types of the parameters in the standard requests to obtain identification results, and the sequencing module adjusts the serial numbers of the standard requests according to the identification results.
4. The lift system for wind management system processing performance of claim 3, wherein: and when the sequencing module adjusts the serial numbers of the standard requests, the standard requests with the same parameter types are adjusted to be connected with the serial numbers according to the identification result.
5. The lift system for wind management system processing performance of claim 4, wherein: the sorting module groups the newly stored standard requests in the storage module according to the storage sequence, only adjusts the serial numbers of the standard requests in the same group, and the wind control process unit sequentially acquires the standard requests of each group according to the sequence.
6. The lift system for wind management system processing performance of claim 5, wherein: the clustering module is used for respectively configuring sequencing priorities for the parameter types, and the sequencing module is used for sequencing the standard requests according to the sequencing priorities of the parameter types.
7. The lift system for wind management system processing performance of claim 1, wherein: the processing of the service request by the synchronous return unit comprises assembling and integrating parameters in the service request and protocol conversion.
8. The lift system for wind management system processing performance of claim 1, wherein: the state information fed back to the front-end application platform by the synchronous return unit comprises prompt information in a waiting state and the number of standard requests currently waiting for calculation.
9. The lift system for wind management system processing performance of claim 1, wherein: the asynchronous notification unit is in communication connection with a router, and the router redistributes the calculation result to a target front-end application platform.
10. The method for improving the processing performance of the wind control system is applied to any one of the lifting systems for the processing performance of the wind control system, which is characterized by comprising the following steps of:
step 1, a front-end application platform initiates a service request;
step 2, the synchronous return unit processes the service request to obtain a standard request;
step 3, the synchronous return unit stores the standard request into a storage module and feeds back state information to the front-end application platform;
step 4, the wind control process unit acquires a standard request from the storage module and initiates a calculation request to the wind control calculation module based on the standard request;
step 5, the wind control calculation module receives the calculation request and then carries out calculation to obtain a calculation result;
step 6, the wind control process unit obtains a calculation result and stores the calculation result in a storage module;
and 7, the asynchronous notification unit acquires the calculation result from the storage module and sends the calculation result to the front-end application platform.
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| CN112015578A (en) * | 2020-10-26 | 2020-12-01 | 上海富友支付服务股份有限公司 | Wind control system and method based on pre-synchronous processing and post-asynchronous processing |
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| CN109344349A (en) * | 2018-09-28 | 2019-02-15 | 北京三快在线科技有限公司 | A kind of data cache method and device, electronic equipment |
| CN110740103A (en) * | 2019-09-02 | 2020-01-31 | 深圳壹账通智能科技有限公司 | Service request processing method and device, computer equipment and storage medium |
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| CN112015578B (en) * | 2020-10-26 | 2021-04-02 | 上海富友支付服务股份有限公司 | Wind control system and method based on pre-synchronous processing and post-asynchronous processing |
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