CN114398021B - Low code delivery method based on software development - Google Patents
Low code delivery method based on software development Download PDFInfo
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Abstract
The invention relates to a low code delivery method based on software development, which comprises the following steps: acquiring function modules of software to be delivered, wherein each function module comprises at least two function units, the two function units are aggregated into one function module, and the function modules are aggregated on the original function and aggregated from other function modules to form function units contained in the function modules; the storage function module is provided with a first storage unit and a second storage unit, wherein the first storage unit is used for storing a first-layer logical relation, and the second storage unit is used for storing a second-layer logical relation; detecting the amount of stored data in the first storage unit and the second storage unit; and adjusting the aggregation condition of the functional units or the functional modules during delivery according to the storage data amount in the first storage unit and the second storage unit. The rationality adjustment of the division of the functional units and the functional modules of the software to be delivered is realized, so that the delivery code amount is greatly reduced during delivery, the delivery efficiency is improved, and the delivery time limit and the delivery cycle are shortened.
Description
Technical Field
The invention relates to the technical field of software development, in particular to a low-code delivery method based on software development.
Background
With the advent of the data age, a large amount of data is generated in daily work every day, and particularly, a large-scale enterprise generates more daily events in the operation process, the events are in different stages and different time nodes, so that resources required for processing are different, and the events are required to be normally pushed and processed for normal operation of the enterprise.
If the follow-up is carried out, the situation is complicated or delayed, in order to avoid the situation, enterprise workers are required to process events on a flow platform, in the event processing process, the event state is recorded at any time, and the event tracking is convenient to carry out.
Disclosure of Invention
Therefore, the invention provides a low-code delivery method based on software development, which can solve the technical problems of long development period and large delivered code amount of the existing development platform.
In order to achieve the above object, the present invention provides a low code delivery method based on software development, including:
acquiring function modules of software to be delivered, wherein each function module comprises at least two function units, the two function units are aggregated into one function module, and the function modules are aggregated on the original function and aggregated from other function modules to form a new function module;
storing the execution function of each function module in operation and the logic relationship among each function module and each function unit, and in the storage process, setting a first storage unit and a second storage unit, wherein the first storage unit is used for storing a first layer logic relationship which is used for representing the logic relationship of the function module, the second storage unit is used for storing a second layer logic relationship which is used for representing the logic relationship among the function units and other function modules;
detecting the storage data amount in the first storage unit and the second storage unit, setting the storage data amount in the first storage unit to be D1, and setting the storage data amount in the second storage unit to be D2;
adjusting the aggregation condition of the functional unit or the functional module during delivery according to the storage data amount in the first storage unit and the second storage unit;
when the aggregation condition is adjusted, a first standard storage data volume D10 and a second standard storage data volume D20 are preset, wherein the first standard storage data volume D10 represents the standard data volume stored in the first storage unit, the second standard storage data volume D20 represents the standard data volume stored in the second storage unit, and if D1 is less than or equal to D10 and D2 is less than or equal to D20, the aggregation condition is directly delivered without being adjusted;
if D1> D10 or D2> D20, functional units need to be polymerized;
if D1> D10 and D2> D20, then the functional modules need to be aggregated.
Further, when D1> D10, the functional units need to be polymerized in the following manner:
a first polymerization coefficient a1, a second polymerization coefficient a2 and a third polymerization coefficient a3 are set;
if D1-D10< the preset first data volume difference value delta D10, the functional units are aggregated by adopting a first aggregation coefficient a 1;
if D1-D10 is equal to a preset first data volume difference value delta D10, the functional units are aggregated by using a second aggregation coefficient a 2;
and if the D1-D10> the preset first data amount difference delta D10, the functional units are aggregated by using a third aggregation coefficient a 3.
Further, the number of the functional units is n, and when the functional units are aggregated by using the first aggregation coefficient a1, the number of the aggregated functional units is n1 ═ n × (1-a1) rounded downward;
when the functional units are polymerized by using the second polymerization coefficient a2, the number of the polymerized functional units is n2 ═ n x (1-a2) rounded down;
when the functional units are polymerized by using the third polymerization coefficient a3, the number of the polymerized functional units is n3 ═ n × (1-a3) rounded downward.
Further, when D2> D20, if D1< D10, the functional module is split and the functional units are aggregated;
when D2> D20, the functional modules and the functional units are respectively aggregated when D1 is not less than D10.
Further, when the functional modules are split, the number of the functional modules is set to be n, and when the functional modules are split, the functional modules are split in an equal amount according to the data volume.
Further, when D1> D10 and D2> D20, the functional modules need to be aggregated;
when 2 xD 10 is more than or equal to D1> D10, performing primary polymerization on the functional modules;
when the value of 5 XD 10 is more than or equal to D1 and more than 2 XD 10, performing middle-level polymerization on the functional modules;
when 8 XD 10 is not less than D1 and more than 5 XD 10, performing high-level polymerization on the functional modules;
when D1 is greater than 8 × D10, the functional modules are directly compressed and no aggregation operation is performed.
Further, when D2> D20, the functional modules need to be aggregated;
when 2 XD 20 is more than or equal to D2> D20, the functional modules are slightly polymerized;
when the value of 5 XD 20 is more than or equal to D2 and more than 2 XD 20, carrying out moderate polymerization on the functional modules;
when 8 XD 20 is not less than D2 and is more than 5 XD 20, highly polymerizing the functional modules;
when D2 is greater than 8 × D20, the functional modules are directly compressed and no aggregation operation is performed.
Further, a polymerization degree is arranged in the controller, the polymerization degree is provided with a plurality of grades, the functional modules are polymerized to be set to be a conventional grade, the conventional grade is assigned to be 0.1, a plurality of secondary grades are arranged in the conventional grade, the conventional grade is assigned to be a decimal number, and the secondary grade is assigned to be an integer number;
the primary aggregation is assigned a value of 1, the light aggregation is assigned a value of 2, the medium aggregation is assigned a value of 3, the medium aggregation is assigned a value of 4, the high aggregation is assigned a value of 5, and the high aggregation is assigned a value of 6.
Further, a standard polymerization degree is arranged in the controller, and if the polymerization degree of each functional unit and each functional module is greater than the standard polymerization degree during delivery, the division of the software to be developed is not appropriate, and early warning is performed;
and if the polymerization degree of each functional unit and each functional module is less than or equal to the standard polymerization degree, the division of the software to be developed is reasonable, and the software is directly delivered.
Further, the functional modules comprise at least 10 functional units, the number of the functional modules in each software to be delivered is at least 10, and the software to be delivered is enterprise application software.
Compared with the prior art, the method has the advantages that the judgment rationality of the division condition of the software to be delivered is judged by detecting the storage data volume in the first storage unit and the second storage unit, the storage data volume in the first storage unit and the second storage unit tends to be normal by aggregating or splitting the functional units or the functional modules, and the rationality adjustment of the division of the functional units and the functional modules of the software to be delivered is finally realized, so that the delivery code volume is greatly reduced during delivery, the delivery efficiency is improved, and the delivery time limit and the delivery cycle are shortened.
Particularly, three aggregation coefficients are set, and the aggregation coefficient is determined and selected to aggregate the functional units according to the difference relationship between the preset data amount difference and the data amount in the first storage unit and the standard data amount, so that the aggregation of the functional units is more efficient, when D1-D10 is smaller than a preset first data amount difference delta D10, a smaller aggregation coefficient a1 is used for aggregation, when D1-D10> a preset first data amount difference delta D10, a larger aggregation coefficient a3 is used for aggregation, when D1-D10 is equal to a preset first data amount difference delta D10, a second aggregation coefficient a2 is used for aggregation, so that the data amount in the first storage unit and the data amount in the second storage unit after aggregation are changed, the storage of the logic relationship is further reduced, and the code amount during delivery is further reduced, the delivery efficiency is improved.
In particular, by aggregating the functional units by using the respective aggregation coefficients, and reducing the number of the functional units by using the aggregation coefficients during aggregation, the actual number of the functional units is reduced, and further, the amount of data stored in the first storage unit and the second storage unit is changed, and the number of the functional units is reduced, so that the logical relationship between the functional units is simpler, the amount of data stored in the first storage unit and the second storage unit is reduced, the amount of code during data delivery is reduced, and the delivery efficiency is improved.
Particularly, when the data volume in the second storage unit is large, the fact that each storage unit is large is indicated, so that a large number of logical relationships exist, the data volume in the first storage unit needs to be judged, if the data volume in the first storage unit is lower than the first standard data volume, the functional module is split to increase the data volume in the first storage unit, and the functional units are aggregated to reduce the data volume in the second storage unit, so that the data volumes in the first storage unit and the second storage unit are close to the corresponding first standard data volume and second standard data volume, the logical relationships in the software delivery process are simple, and the software delivery efficiency is improved.
Particularly, when the functional module is divided, the data volume is split in equal quantity, in practical application, the functional module comprises a plurality of functional units, but the data volume in different functional units is different, the data volume of some functional units is the sum of the data volume of other functional units, and when the functional module is split, the functional unit is split from the functional module to form a functional unit and another secondary functional module.
Particularly, by evaluating the data volume of the first storage unit, the functional modules are aggregated in different aggregation modes at the stage of determining the data volume of the first stored case source, so that the minimum unit of the functional function of the functional modules changes, the number of the logical relations stored in the second storage unit is small, the data volume in the second storage unit is reduced, the code volume in the software delivery process is reduced, and the delivery speed is improved.
In particular, by evaluating the data amount of the second storage unit, the stage of determining the data amount of the second storage source is adopted, the functional modules are aggregated by adopting different aggregation modes, if the data amount in the second storage unit is in the first level, mild aggregation is adopted, if the data amount in the second storage unit is in the second level, moderate aggregation is adopted, if the data amount in the third storage unit is in the third level, high aggregation is adopted, and different aggregation strengths are adopted, so that the data amount of the logical relation stored in the second storage unit is changed, the code amount in delivery is greatly reduced, and the delivery efficiency is improved
Particularly, by setting the standard polymerization degree, if the polymerization degree is high in the actual polymerization process, it means that the division of the functional units and the functional modules is not scientific enough, so that a large amount of polymerization or separation is generated during delivery, and the delivery time is greatly prolonged, therefore, at this time, an alarm needs to be given to avoid similar data separation in subsequent work, if the polymerization degree generated during delivery is less than or equal to the standard polymerization degree, it means that the division of the software to be developed is reasonable, and the delivery is directly performed, it means that the division of the functional units and the functional modules is reasonable and efficient, and the subsequent popularization and application are facilitated.
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Fig. 1 is a flowchart illustrating a low code delivery method based on software development according to an embodiment of the present invention.
Detailed Description
In order that the objects and advantages of the invention will be more clearly understood, the invention is further described below with reference to examples; it should be understood that the specific embodiments described herein are merely illustrative of the invention and are not intended to limit the invention.
Preferred embodiments of the present invention are described below with reference to the accompanying drawings. It should be understood by those skilled in the art that these embodiments are only for explaining the technical principle of the present invention, and do not limit the scope of the present invention.
It should be noted that in the description of the present invention, the terms of direction or positional relationship indicated by the terms "upper", "lower", "left", "right", "inner", "outer", etc. are based on the directions or positional relationships shown in the drawings, which are only for convenience of description, and do not indicate or imply that the device or element must have a specific orientation, be constructed in a specific orientation, and be operated, and thus, should not be construed as limiting the present invention.
Furthermore, it should be noted that, in the description of the present invention, unless otherwise explicitly specified or limited, the terms "mounted," "connected," and "connected" are to be construed broadly, and may be, for example, fixedly connected, detachably connected, or integrally connected; can be mechanically or electrically connected; they may be connected directly or indirectly through intervening media, or they may be interconnected between two elements. The specific meanings of the above terms in the present invention can be understood by those skilled in the art according to specific situations.
Referring to fig. 1, a low code delivery method based on software development according to an embodiment of the present invention includes:
step S100: acquiring function modules of software to be delivered, wherein each function module comprises at least two function units, the two function units are aggregated into one function module, and the function modules are aggregated on the original function and aggregated from other function modules to form a new function module;
step S200: storing the execution function of each functional module in operation and the logical relationship among each functional module and each functional unit, and in the storage process, setting a first storage unit and a second storage unit, wherein the first storage unit is used for storing a first layer of logical relationship, the first layer of logical relationship is used for representing the logical relationship among the functional modules, the second storage unit is used for storing a second layer of logical relationship, and the second layer of logical relationship is used for representing the logical relationship among the functional units and other functional modules;
step S300: detecting the storage data amount in the first storage unit and the second storage unit, setting the storage data amount in the first storage unit to be D1, and setting the storage data amount in the second storage unit to be D2;
step S400: adjusting the aggregation condition of the functional unit or the functional module during delivery according to the storage data amount in the first storage unit and the second storage unit;
when the aggregation condition is adjusted, a first standard storage data volume D10 and a second standard storage data volume D20 are preset, wherein the first standard storage data volume D10 represents the standard data volume stored in the first storage unit, the second standard storage data volume D20 represents the standard data volume stored in the second storage unit, and if D1 is less than or equal to D10 and D2 is less than or equal to D20, the aggregation condition is directly delivered without being adjusted;
if D1> D10 or D2> D20, functional units need to be polymerized;
if D1> D10 and D2> D20, then the functional modules need to be aggregated.
Specifically, the software to be delivered in the embodiment of the present invention generally includes a plurality of function modules, where different function modules are used to execute different functions, and the implementation of the functions is completed by executing a plurality of lines of codes, that is, each function module includes a plurality of function units, each function unit is implemented by an execution code, and when the software to be delivered is delivered, a logical relationship of the function modules, that is, an execution sequence of each module, is also delivered in addition to the function modules to be delivered, so that a user can execute the corresponding function modules according to the corresponding execution sequence after the delivery, thereby completing the functions of the software to be delivered, and meeting actual requirements of the user.
Specifically, the embodiment of the present invention detects the storage data amounts in the first storage unit and the second storage unit to determine the rationality of the judgment on the division condition of the software to be delivered, and aggregates or splits the functional units or the functional modules to make the storage data amounts in the first storage unit and the second storage unit tend to be normal, thereby finally realizing rationality adjustment on the division of the functional units and the functional modules of the software to be delivered, so that the delivery code amount is greatly reduced during delivery, the delivery efficiency is improved, and the delivery time limit and the delivery cycle are shortened.
Specifically, when D1> D10, the functional units need to be aggregated, and the aggregation method adopted is as follows:
a first polymerization coefficient a1, a second polymerization coefficient a2 and a third polymerization coefficient a3 are set;
if D1-D10< the preset first data volume difference value delta D10, the functional units are aggregated by adopting a first aggregation coefficient a 1;
if D1-D10 is equal to a preset first data volume difference value delta D10, the functional units are aggregated by adopting a second aggregation coefficient a 2;
if D1-D10> the preset first data amount difference Δ D10, the functional units are aggregated using a third aggregation coefficient a3, where 0.1< first aggregation coefficient a1< second aggregation coefficient a2< third aggregation coefficient a3< 1.
Specifically, the embodiment of the invention sets three aggregation coefficients, determines and selects an aggregation coefficient to aggregate the functional units according to the difference relationship between the preset data amount difference and the data amount in the first storage unit and the standard data amount, so that the aggregation of the functional units is more efficient, and at D1-D10< the preset first data amount difference Δ D10, the aggregation is performed by using a smaller aggregation coefficient a1, and when D1-D10> the preset first data amount difference Δ D10, the aggregation is performed by using a larger aggregation coefficient a3, and if D1-D10 is equal to the preset first data amount difference Δ D10, the functional units are aggregated by using a second aggregation coefficient a2, so that the data amount in the first storage unit and the data amount in the second storage unit after aggregation are changed, and the storage of the logical relationship is further reduced, and the code amount at the time of delivery is further reduced, the delivery efficiency is improved.
Specifically, the number of the functional units is n, and when the functional units are aggregated by using the first aggregation coefficient a1, the number of the functional units after aggregation is n1 ═ n × (1-a1) rounded downward;
when the functional units are polymerized by using the second polymerization coefficient a2, the number of the polymerized functional units is n2 ═ n x (1-a2) rounded down;
when the functional units are polymerized by using the third polymerization coefficient a3, the number of the polymerized functional units is n3 ═ n × (1-a3) rounded down.
Specifically, 10 functional units are provided, and if a1 is set to 0.12, the number of the aggregated functional units is 1, if a3 is set to 0.75, the number of the aggregated functional units is 7, and so on.
Specifically, in the embodiment of the present invention, the functional units are aggregated by using the respective aggregation coefficients, and the number of the functional units is reduced by using the aggregation coefficients during aggregation, so that the actual number of the functional units is reduced, and further, the data amount stored in the first storage unit and the second storage unit is changed, and the reduction of the number of the functional units makes the logical relationship between the functional units simpler, so that the data amount stored in the first storage unit and the second storage unit is reduced, so that the code amount during data delivery is reduced, and the delivery efficiency is improved.
Specifically, when D2> D20, if D1< D10, the functional module is split and the functional units are aggregated;
when D2> D20, the functional modules and the functional units are respectively aggregated when D1 is not less than D10.
Specifically, in the embodiment of the present invention, when the amount of data in the second storage unit is large, it indicates that each storage unit is large, and therefore there are many logical relationships, at this time, it is necessary to determine the amount of data in the first storage unit, and if the amount of data in the first storage unit is lower than the first standard amount of data, the functional module is split to increase the amount of data in the first storage unit, and the functional units are aggregated to reduce the amount of data in the second storage unit, so that the amounts of data in the first storage unit and the second storage unit are both close to the corresponding first standard amount of data and second standard amount of data, so that the logical relationship in the software delivery process is simple, and the efficiency of software delivery is improved.
Specifically, when the function modules are split, the number of the function modules is set to n, and when the function modules are split, the function modules are split equally according to the data volume.
Specifically, in the embodiment of the invention, when the functional module is divided, the data volume is split in equal quantity, in practical application, the functional module comprises a plurality of functional units, but the data volume in different functional units is different, and the data volume of some functional units is the sum of the data volume of other functional units.
Specifically, when D1> D10 and D2> D20, then the functional modules need to be aggregated;
when 2 xD 10 is more than or equal to D1> D10, performing primary polymerization on the functional modules;
when the value of 5 XD 10 is more than or equal to D1 and more than 2 XD 10, performing middle-level polymerization on the functional modules;
when 8 XD 10 is not less than D1 and is more than 5 XD 10, performing advanced polymerization on the functional modules;
when D1 is greater than 8 × D10, the functional modules are directly compressed and no aggregation operation is performed.
Specifically, in the embodiment of the present invention, by evaluating the data amount of the first storage unit and determining the stage where the data amount of the first storage source is located, the functional modules are aggregated in different aggregation manners, so that the minimum unit of the functional function of the functional modules changes, the number of logical relationship quantities stored in the second storage unit is small, the data amount in the second storage unit is reduced, the code amount in the software delivery process is reduced, and the delivery speed is increased.
Specifically, when D2> D20, the functional modules need to be aggregated;
when 2 XD 20 is not less than D2> D20, slightly polymerizing the functional modules;
when the value of 5 XD 20 is more than or equal to D2 and more than 2 XD 20, carrying out moderate polymerization on the functional modules;
when 8 XD 20 is not less than D2 and more than 5 XD 20, highly polymerizing the functional modules;
when D2 is greater than 8 × D20, the functional modules are directly compressed and no aggregation operation is performed.
Specifically, in the embodiment of the present invention, by evaluating the data amount of the second storage unit, the stage where the data amount of the second storage source is located is determined, the functional modules are aggregated by using different aggregation modes, if the data amount in the second storage unit is in the first hierarchy, the functional modules are aggregated by using a light aggregation mode, if the data amount in the second storage unit is in the second hierarchy, the functional modules are aggregated by using a medium aggregation mode, if the data amount in the second storage unit is in the third hierarchy, the functional modules are aggregated by using a high aggregation mode, and if the data amount in the second storage unit is in the third hierarchy, the logical relationship data amount stored in the second storage unit is changed by using different aggregation strengths, so that the code amount during delivery is greatly reduced, and the delivery efficiency is improved.
Specifically, a polymerization degree is arranged in the controller, the polymerization degree is provided with a plurality of grades, the functional modules are polymerized and set to be a conventional grade, the conventional grade is assigned to be 0.1, a plurality of secondary grades are arranged in the conventional grade, the conventional grade is assigned to be a decimal number, and the secondary grades are assigned to be integers;
the primary aggregation is assigned a value of 1, the light aggregation is assigned a value of 2, the medium aggregation is assigned a value of 3, the medium aggregation is assigned a value of 4, the high aggregation is assigned a value of 5, and the high aggregation is assigned a value of 6.
Specifically, the embodiment of the invention evaluates the data adjustment amplitude in the delivery process by setting the polymerization degree and carrying out grade evaluation on the polymerization mode generated in the data quantity adjustment process of the polymerization degree during delivery, determines the data integration amplitude during delivery, realizes effective evaluation on data integration, ensures comprehensive control on data integration strength, and improves delivery efficiency.
Specifically, a standard polymerization degree is arranged in the controller, and if the polymerization degree of each functional unit and functional module is greater than the standard polymerization degree during delivery, the division of the software to be developed is not appropriate, and early warning is performed;
and if the polymerization degrees of the functional units and the functional modules are not more than the standard polymerization degree, the division of the software to be developed is reasonable, and the software is directly delivered.
Specifically, by setting the standard degree of polymerization, if the degree of polymerization is large in the actual polymerization process, it means that the division of the functional units and the functional modules is not scientific enough, so that a large amount of polymerization or separation is generated during delivery, and the delivery time is greatly prolonged, so that an alarm needs to be given at this time to avoid similar data separation in subsequent work, and if the degree of polymerization generated during delivery is less than or equal to the standard degree of polymerization, it means that the division of software to be developed is reasonable, and the delivery is directly performed, it means that the division of the functional units and the functional modules is reasonable and efficient, thereby facilitating subsequent popularization and application.
Specifically, the functional modules include at least 10 functional units, and the number of the functional modules in each software to be delivered is at least 10.
Specifically, the embodiment of the present invention limits the number of the functional units and the functional modules in the functional module, so that the data amount of the logical relationship stored in the first storage unit and the second storage unit is limited, the processing amount of data processing is small, the flexibility of data processing is improved, and the delivery efficiency is further improved.
Specifically, the software to be delivered is enterprise application software.
Specifically, the embodiment of the invention limits the reference attribute of the software to be delivered, and in practical application, the software to be delivered can be enterprise application software, industrial software, user software, or other types of software.
Specifically, the low-code delivery method based on software development provided by the embodiment of the invention completes systematic landing of an informatization application agile delivery process by developing a rapid application development platform based on a low-code technology and a matched statistical service function component library, provides a low-code development platform environment for various informatization application deliveries in the future, changes the disadvantages of verbose and complex management of the traditional software development process, realizes rapid response of requirements of sensitization of information management applications, achieves 'change at any time and delivery in time', and fully meets the requirements of timely payment of enterprise informatization applications. The low code delivery process is mainly divided into three stages: firstly, in a system design and development stage, operation and maintenance personnel support and pull through established technologies and data components to realize application scenarios such as data query, data visualization, data acquisition, data adjustment, data verification and the like. And in the system operation stage, after the system development is completed, the application can be operated at the cloud end by one-key deployment. And in the use stage of the user, the terminal user can access the deployed application system by logging in the agile application platform, so that the delivery efficiency is greatly improved.
So far, the technical solutions of the present invention have been described in connection with the preferred embodiments shown in the drawings, but it is apparent to those skilled in the art that the scope of the present invention is not limited to these specific embodiments. Equivalent changes or substitutions of related technical features can be made by those skilled in the art without departing from the principle of the invention, and the technical scheme after the changes or substitutions can fall into the protection scope of the invention.
The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention; various modifications and alterations to this invention will become apparent to those skilled in the art. Any modification, equivalent replacement, or improvement made within the spirit and principle of the present invention should be included in the protection scope of the present invention.
Claims (10)
1. A low code delivery method based on software development, comprising:
acquiring function modules of software to be delivered, wherein each function module comprises at least two function units, the two function units are aggregated into one function module, and the function modules are aggregated on the original function and aggregated from other function modules to form a new function module;
storing the execution function of each functional module in operation and the logical relationship among each functional module and each functional unit, and in the storage process, setting a first storage unit and a second storage unit, wherein the first storage unit is used for storing a first layer of logical relationship, the first layer of logical relationship is used for representing the logical relationship among the functional modules, the second storage unit is used for storing a second layer of logical relationship, and the second layer of logical relationship is used for representing the logical relationship among the functional units and other functional modules;
detecting the storage data amount in the first storage unit and the second storage unit, setting the storage data amount in the first storage unit to be D1, and setting the storage data amount in the second storage unit to be D2;
adjusting the aggregation condition of the functional unit or the functional module during delivery according to the storage data amount in the first storage unit and the second storage unit;
when the aggregation condition is adjusted, a first standard storage data volume D10 and a second standard storage data volume D20 are preset, wherein the first standard storage data volume D10 represents the standard data volume stored in the first storage unit, the second standard storage data volume D20 represents the standard data volume stored in the second storage unit, and if D1 is not more than D10 and D2 is not more than D20, the aggregation condition is directly delivered without being adjusted;
if D1> D10 or D2> D20, the functional units need to be polymerized;
if D1> D10 and D2> D20, then functional modules need to be aggregated.
2. The software development-based low code delivery method of claim 1,
when D1> D10, the functional units need to be polymerized in the following way:
a first polymerization coefficient a1, a second polymerization coefficient a2 and a third polymerization coefficient a3 are set;
if D1-D10< the preset first data volume difference value delta D10, the functional units are aggregated by adopting a first aggregation coefficient a 1;
if D1-D10 is equal to a preset first data volume difference value delta D10, the functional units are aggregated by using a second aggregation coefficient a 2;
and if the D1-D10> the preset first data amount difference delta D10, the functional units are aggregated by using a third aggregation coefficient a 3.
3. The software development-based low code delivery method of claim 2,
the number of the functional units is n, and when the functional units are polymerized by adopting a first polymerization coefficient a1, the number of the polymerized functional units is n1 ═ n x (1-a1), and the number is rounded downwards;
when the functional units are polymerized by using the second polymerization coefficient a2, the number of the polymerized functional units is n2 ═ n x (1-a2) rounded down;
when the functional units are polymerized by using the third polymerization coefficient a3, the number of the polymerized functional units is n3 ═ n × (1-a3) rounded downward.
4. The software development-based low code delivery method of claim 3,
when D2> D20, if D1< D10, splitting the functional module and aggregating the functional units;
when D2> D20, the functional modules and the functional units are respectively aggregated when D1 is not less than D10.
5. The software development-based low-code delivery method according to claim 4, wherein when the functional module is split, the functional module is split equally according to the data amount.
6. The software development-based low code delivery method of claim 5,
when D1> D10 and D2> D20, the functional modules need to be aggregated;
when 2 xD 10 is more than or equal to D1> D10, performing primary polymerization on the functional modules;
when 5 XD 10 is not less than D1 and more than 2 XD 10, carrying out middle-level aggregation on the functional modules;
when 8 XD 10 is not less than D1 and is more than 5 XD 10, performing advanced polymerization on the functional modules;
when D1 is greater than 8 × D10, the function modules are directly compressed and no aggregation operation is performed.
7. The software development-based low code delivery method according to claim 6,
when D2> D20, the functional modules need to be aggregated;
when 2 XD 20 is more than or equal to D2> D20, the functional modules are slightly polymerized;
when the value of 5 XD 20 is more than or equal to D2 and more than 2 XD 20, carrying out moderate polymerization on the functional modules;
when 8 XD 20 is not less than D2 and is more than 5 XD 20, highly polymerizing the functional modules;
when D2 is greater than 8 × D20, the function modules are directly compressed and no aggregation operation is performed.
8. The software development-based low-code delivery method according to claim 7, wherein a polymerization degree is set in the controller, the polymerization degree is set with a plurality of levels, the functional modules are aggregated and set to a conventional level, the conventional level is assigned with a value of 0.1, a plurality of secondary levels are set in the conventional level, the conventional level is assigned with a decimal value, and the secondary levels are assigned with values of integers;
the primary aggregation is assigned a value of 1, the light aggregation is assigned a value of 2, the medium aggregation is assigned a value of 3, the medium aggregation is assigned a value of 4, the high aggregation is assigned a value of 5, and the high aggregation is assigned a value of 6.
9. The software development-based low code delivery method of claim 8,
the controller is internally provided with a standard polymerization degree, if the polymerization degree of each functional unit and functional module is greater than the standard polymerization degree during delivery, the division of software to be developed is not proper, and early warning is performed;
and if the polymerization degrees of the functional units and the functional modules are not more than the standard polymerization degree, the division of the software to be developed is reasonable, and the software is directly delivered.
10. The software development-based low code delivery method of claim 9,
the functional modules comprise at least 10 functional units, the number of the functional modules in each software to be delivered is at least 10, and the software to be delivered is enterprise application software.
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