TWI799230B - System, method and computer-readable medium for dynamic order organization management - Google Patents

Abstract

A method for dynamic order organization management, a corresponding system and a corresponding computer-readable medium are provided. The method includes generating a sequence code of each order template according to sequence rules of the order templates, verifying whether a plurality of orders conform to the sequence rules according to the sequence codes, and processing each order when the orders conform to the sequence rules.

Description

Dynamic order organization management system, method and computer readable medium

The present invention relates to a management method for order execution sorting, in particular to an information platform, a system, method and mechanism for logical sorting verification through programs.

With the vigorous development of diversified cloud services and the demand for on-demand, online real-time order processing systems have also increased in complexity. Therefore, how to quickly and correctly complete the order establishment process has become an important issue.

The traditional shopping cart mode is widely used in the processing of batch orders, but it can only meet the use cases of non-sequential logic between general orders.

To solve this sequencing problem, the main solution has two aspects:

One solution uses templates to clearly define the legal order of execution among various types of orders, but this method will increase the number of templates in a proportional progression with the increase of order types, which will cause too much comparison and verification in the execution process cost, resulting in poor system performance.

Another solution is to use the method of calculating priority, assigning the weight value of the order of each job through the definition of the formula, and use this weight value as the standard for processing priority. Although this method can reduce the former However, if each task must clearly distinguish its priority order, each time a new type of work is added, it must face the adjustment of the priority calculation formula and the logic of the original execution order. The number of rules There will still be a high degree of positive correlation according to the amount of data, leading to problems such as increased management and implementation difficulties.

The performance bottleneck derived from the prior art is a technical problem that needs to be solved urgently in this field. Therefore, the purpose of the present invention is to provide a management method that has high availability sequence code calculation logic and can adjust the sorting rules in real time during system execution.

Aiming at the shortcomings of the known order sorting management mechanism, the present invention provides a dynamic order organization management system, which includes a sequence code calculation module, a sort verification module and an order processing module. The sequence code calculation module is used to generate sequence codes for each of the order templates according to the sequence rules of the multiple order templates; the sequence verification module is used to verify whether the multiple orders conform to the sequence rules according to the sequence codes; the order The processing module is used for processing each order when the orders conform to the sorting rule.

The present invention also provides a dynamic order organization management method, including: generating sequence codes for each of the order templates according to the sorting rules of the multiple order templates; verifying whether the multiple orders conform to the sorting rules according to the sequence codes; When the collation is met, each order is processed.

The present invention also provides a computer-readable medium, which is applied to a computing device or a computer and stores instructions to execute the above-mentioned dynamic order organization management method.

1: Dynamic order organization management system

11: Common components

111:Sequencing code calculation module

112:Sorting verification module

12:Server

13: Order core components

131: Order template definition module

132:Order processing module

21~26: Steps

31: Order template data sheet

33: Sort restriction table

41~44: Steps

51: Phase 1

52: Second stage

61~67: Steps

Fig. 1 is a functional module association diagram of a dynamic order organization management system according to an embodiment of the present invention.

Fig. 2 is a flowchart of a dynamic order organization management method according to an embodiment of the present invention.

Fig. 3 is an explanatory diagram of the data structure and operation mode of the sequence code calculation module according to an embodiment of the present invention.

FIG. 4 is a flow chart of a sequential code calculation method according to an embodiment of the present invention.

Fig. 5 is an explanatory diagram of the data structure and operation mode of the sorting verification module according to an embodiment of the present invention.

FIG. 6 is a flowchart of a sorting verification algorithm method according to an embodiment of the present invention.

FIG. 1 is a functional module association diagram of a dynamic order organization management system 1 (which may be referred to as system 1 for short) according to an embodiment of the present invention.

In this embodiment, the system 1 includes a common component 11 , a server 12 , and an order core component 13 . The common element 11 includes a sequence code calculation module 111 and a sequence verification module 112 . The order core component 13 includes an order template definition module 131 and an order processing module 132 . The server 12 has a database, and is coupled to the sequence code calculation module 111 , the sequence verification module 112 , the order template definition module 131 , and the order processing module 132 through communication. In addition, the order verification module 112 is communicatively coupled to the order processing module 132 .

In one embodiment, the sequence code calculation module 111 , the sequence verification module 112 , the order template definition module 131 , and the order processing module 132 can all be hardware, software or firmware. If it is hardware, it can be a processing unit, processor, computer or server with data processing and computing capabilities; if it is software or firmware, it can include instructions executable by a processing unit, processor, computer or server , and can be installed on the same hardware device or distributed across multiple different hardware devices.

FIG. 2 is a flow chart of the dynamic order organization management method executed by the system 1 in an embodiment of the present invention.

First, in step 21 , the order template definition module 131 builds various types of order templates in the system 1 into the order template data table stored in the database of the server 12 .

Each order template corresponds to an order type. The content of each order template may include information such as the order type and the application programming interface (application programming interface, API) that needs to be called when the order is executed, and corresponding parameters.

After the construction is completed, in step 22 , the sequence code calculation module 111 generates a sequence code for each order template according to the sorting rules defined by the system 1 .

In step 23, the sorting verification module 112 verifies whether the sorting of the orders conforms to the sorting rules according to the sequencing codes in the templates of the orders to be executed.

Then, in step 24, the sorting verification module 112 performs shunting processing according to the verification result. If the sorting of these orders does not meet the sorting rules, the process enters step 25, that is, the sorting verification module 112 sends an error message; When the sorting of the orders conforms to the sorting rule, the process enters step 26, that is, the order processing module 132 processes each order one by one according to the sorting of the orders.

The above processing is to call the API in the template of each order, and provide corresponding parameters when calling, so as to execute the order process defined by the API in the template of each order and the corresponding parameters.

Fig. 3 is an explanatory diagram of the data structure and operation mode of the sequence code calculation module 111 of an embodiment of the present invention, and its operation flow can be referred to Fig. 4, and Fig. 4 is the flowchart of step 22 among Fig. 2.

In this embodiment, the system 1 belongs to a network operator, the above-mentioned order is the user's application for various network services, and the above-mentioned order process is the establishment process of the service applied by the user.

As shown in Figure 3, system 1 defines four order types from A to D, that is, defines four order templates from A to D, where A is the URL conversion for opening the fourth version of the Internet Protocol Version 4 (IPv4) (Network Address Translation, NAT) service, B is to open IPv4/IPv6 data center platform services, C is to open Internet Protocol Version 6 (Internet Protocol Version 6, IPv6) network services, D is to open IPv4/IPv6 network Road external gateway service.

Firstly, as mentioned above, in step 21 , the order template definition module 131 builds the order templates A to D into the order template data table 31 stored in the database of the server 12 .

Next, in step 41 , the sequencing code calculation module 111 composes the sorting restriction table 33 according to the order templates A to D. The number of columns and columns in the sorting restriction table 33 is equal to the number of order templates. The sorting constraint table 33 is used to record the sorting constraints derived from the sorting rules of the order templates A to D.

For example, when the collation includes four rules, the first rule is that A cannot be processed before B and D (that is, A cannot be sorted before B or D, and so on), and the second rule is that B cannot be processed before C Before processing, the third rule is that C cannot be processed before A, B, D, and the fourth rule is that D cannot be processed before B, C, then in step 42, the sequencing code calculation module 111 according to the first The first rule marks the second column and the fourth column of the first column of the sorting restriction table 33, and marks the third column of the second column of the sorting restriction table 33 according to the second rule, and so on. The completed marking results are shown in the sorting restriction table 33 in FIG. 3 .

Next, in step 43 , the sequence code calculation module 111 retrieves the sequence codes of each order template from the sort constraint table 33 . In one embodiment, the sequence code can be represented as a binary value, each row of the sorting restriction table 33 corresponds to the sequence code of an order template, and each column corresponds to a bit of the sequence code, and the marked column corresponds to The bit of the column is 1, and the bit corresponding to the unmarked column is 0. Accordingly, it can be deduced that the sequence codes of order templates A to D are 0101, 0010, 1101 and 0110 respectively.

Next, in step 44 , the sequence code calculation module 111 stores the retrieved sequence code into the sequence code field of the order template data table 31 .

FIG. 5 is an explanatory diagram of the data structure and operation mode of the sorting verification module 112 according to an embodiment of the present invention. The operation flow can refer to FIG. 6, which is a flow chart of steps 23 and 24 in FIG. 2 .

Firstly, in step 61, the system 1 starts to input the orders to be processed one by one, and the sequence verification module 112 retrieves the sequence code of the order template of the type that the order belongs to from the previously completed order template data table 31 according to the input sequence.

In step 62 , the sorting verification module 112 checks whether the order is the first input order, if yes, the flow goes to step 63 , otherwise the flow goes to step 64 .

If the order is the first input order, then in step 63, the order verification module 112 directly regards the order code of the order template corresponding to the type of the order as the original rule code. For example, in the first stage 51 shown in FIG. 5, when the type of the first input order is B, the sequence code of the corresponding order template B is 0010, and 0010 is the initial rule code. Next, at step 65, the sorting verification module 112 calculates the allowable type of the next order that meets the sorting rules according to the value of each element in the rule code. For example, if the rule code is 0010, then the type of the next input order must be A, B or D, so as to comply with the sorting rule.

If the order is not the first input order, then in step 64, the sorting verification module 112 performs a union operation of the rule code and the sequence code of the order template corresponding to the type of the order (that is, the binary "or "Operation) to generate a new rule code. For example, in the second stage 52 shown in FIG. 5 , when the type of the second input order is A, the sequence code of the corresponding order template A is 0101, and the new rule code is 0111. Next, at step 65, the sorting verification module 112 calculates the allowable type of the next order that meets the sorting rules according to the value of each bit in the rule code. For example, the rule code is 0111, the order type of the next input must be A to comply with the sorting rules. Through this mechanism, the next legal order type can be quickly filtered out at each stage.

Next, in step 66, the sorting verification module 112 checks whether the type of the next order is the allowable type, if yes, the process enters step 67, otherwise the process enters step 25 in FIG. 2 .

In step 67, the sorting verification module 112 checks whether the next order is the last order, if yes, the process enters step 26 in Figure 2, otherwise the process returns to step 61, and the preceding steps are performed with the next order to verify Subsequent orders entered.

Therefore, it can be known that the rule code used to verify whether the type of the Nth order is an allowable type is the result of all the sequence codes of the order templates corresponding to the previous N-1 orders being combined. N can be greater than One of any integer.

The present invention further provides a computer-readable medium, such as a memory, a floppy disk, a hard disk or an optical disk. The computer-readable medium is applied in a computing device or a computer and stores instructions to execute the above dynamic order organization management method.

To sum up, the present invention provides a dynamic order organization management system and method, which can be designed to convert complex arrangement logic rules into highly readable binary codes. When the input of batch data is received, the type of orders that can be executed in the next cycle can be judged within a constant level of time cost, without the need to compare a large number of legal sorting combinations one by one.

In addition, the sorting rules can be directly adjusted during system execution, so as to achieve the purpose of dynamically adjusting the program execution logic by updating the sequence code. Therefore, in addition to the technical features of the present invention, the improved system efficiency is also very significant, so as to overcome the technical problem of performance bottleneck derived from the prior art.

Although the present invention is disclosed above with preferred embodiments, it is not intended to limit the present invention. Anyone who is familiar with this technology can make changes and modifications without departing from the spirit and scope of the present invention. Therefore, the scope of protection of the present invention should be defined by the scope of the appended patent application.

1: Dynamic order organization management system

11: Common components

111:Sequencing code calculation module

112:Sorting verification module

12:Server

13: Order core components

131: Order template definition module

132:Order processing module

Claims (10)

A dynamic order organization management system, including: Sequence code calculation module, used to generate the sequence code of each order template according to the sorting rules of multiple order templates; a sorting verification module for verifying that multiple orders comply with the sorting rules based on the sorting codes; and The order processing module is used for processing each order when the orders conform to the sorting rule. The dynamic order organization management system as described in claim item 1, wherein the sorting rules include sorting restrictions on the processing order between the order types corresponding to each of the order templates, and the sequence code calculation module is based on each of the order The ordering constraints of the templates generate the ordering codes. The dynamic order organization management system as described in claim item 1, wherein the orders include a first order and a second order, the second order follows the first order, and the sorting verification module is reused according to The rule code of the first order verifies whether the second order conforms to the sorting rule. The dynamic order organization management system as described in claim 3, wherein, if the first order is the first order among the orders, the rule code is the sequence of the order template corresponding to the first order code, otherwise, if the first order is not the first order among the orders, the rule code is all the sequential codes from the first order to the first order in the orders The result of the set operation. The dynamic order organization management system as described in claim 3, wherein the sorting verification module compares the allowed type with the type of the second order according to the allowed type defined by the value of each bit in the rule code, To verify whether the second order conforms to the sorting rule. The dynamic order organization management system as described in Claim 1, wherein the order processing module executes the order process of the order template corresponding to each order to process each order. The dynamic order organization management system as described in claim item 6, wherein the order flow of each order template includes an application programming interface and corresponding parameters, and the order processing module calls the application programming interface of each order and provides each The corresponding parameters of the order are used to execute the order process of each order. A dynamic order organization management method, comprising: Generate the sequence code of each order template according to the sorting rules of multiple order templates; Validate that multiple orders conform to the ordering rules against the ordering codes; and Processing each of the orders when the orders conform to the ordering rule. The dynamic order organization management method as described in claim item 8, wherein the sorting rules include sorting restrictions on the processing order between the order types corresponding to the order templates, and the sequence codes are based on the order templates The sort constraints are generated. A computer-readable medium, used in a computing device or a computer, stores instructions to execute the dynamic order organization management method as described in claim 8 or 9.

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