Storage-based complex package nesting conversion method

Abstract

The invention discloses a storage-based complex package nested transformation method, and relates to the technical field of storage and package crossing, and the method comprises the following steps: step 1, constructing a complex package structure tree and inventory management: constructing a multi-structure tree: constructing a mutual relationship between same cargo package keys, and establishing a multi-root-node packaging structure tree, a single-root-node packaging structure tree and a multi-single-node packaging relationship, embedding different cargo packaging key relationships, carrying out multi-root-node cargo packaging and single-root-node cargo packaging, and carrying out abnormity judgment and early warning. According to the method, the complex packages can be quickly and mutually converted and matched with storage packages, and the scene requirement and the refined requirement of clients for processing the complex nested packages are met; according to the invention, numerous package conversion strategies are provided, clients can select strategies suitable for their own demands, specific business scenes are satisfied, and the satisfaction degree of users is improved.

Description

Technical Field

[0001] The present invention relates to the cross - technical field of warehousing and packaging, and specifically to a nested conversion method for complex packaging based on warehousing. Background Art

[0002] In the scenario of warehousing in and out of complex packaging, realizing a fast, mutually convertible and warehousing - packaging - adaptable processing method is the key to ensuring the efficient operation of the warehouse. However, there are many drawbacks in the traditional processing methods. For example, when goods are warehoused in and out, it takes a lot of time to slowly disassemble the packaging, or directly warehousing in and out without packaging conversion, or even avoiding goods with complex packaging structures to avoid trouble. These practices make it difficult to meet the diverse needs of customers. Nowadays, customers' diverse needs for packaging are increasing, and customized services are also continuously advancing. Therefore, the market urgently needs a new processing method that can quickly process packaging, realize mutual conversion between packages, and adapt to warehousing requirements to meet the actual needs of customers.

[0003] Based on this, a nested conversion method for complex packaging based on warehousing is now provided, which can eliminate the drawbacks of existing methods. Summary of the Invention

[0004] The purpose of the present invention is to provide a nested conversion method for complex packaging based on warehousing to solve the problems of the shortcomings of the modern product in the background art.

[0005] To achieve the above - mentioned purpose, the present invention provides the following technical solutions:

[0006] A nested conversion method for complex packaging based on warehousing, comprising the following steps:

[0007] Step 1: Construct a complex packaging structure tree and inventory management:

[0008] Construct a multi - structure tree: Construct the mutual relationship between the packaging keys of the same goods, and establish a multi - root - node packaging structure tree, a single - root - node packaging structure tree, and a multi - single - node packaging relationship. Embed the packaging key relationships of different goods, perform multi - root - node goods packaging and single - root - node goods packaging, and perform exception judgment and warning;

[0009] Construct packaging inventory management: Establish a goods packaging expression to manage the packaging inventory, including warehousing and out - warehousing operations, and display the packaging ID, packaging name, packaging inventory quantity, and packaging location information;

[0010] Construct goods inventory management: Establish a goods inventory expression to manage the goods inventory, including warehousing and out - warehousing operations, and display the inventory ID, goods name, inventory quantity, location, packaging key name, and warehousing type, without storing in the smallest packaging key;

[0011] Step 2: Construct a packaging conversion center;

[0012] Conduct configuration management to configure input, output, and conversion logic, including global conversion policy logic configuration, warehouse configuration, enabling packaging inventory configuration, and warning activation configuration;

[0013] Through the intelligent conversion module, combine the conversion policy, configuration information, warehouse inventory, packaging inventory, and packaging structure tree information to convert the input demand packaging into the actual output packaging;

[0014] Step 3: Construct a conversion policy;

[0015] Construct a packaging priority policy. First, construct a packaging priority chain, or you can also select a packaging key during the conversion input. The ones ranked in the front are given priority, and the ones not selected are defaulted to disabled packaging keys;

[0016] Construct a packaging inventory policy. When the quantity of packaging in the goods inventory is insufficient, check the packaging stock. If it is sufficient, then proceed with packing;

[0017] Construct a quantitative packaging policy. For the input quantitative packaging goods, follow the quantitative rules during conversion and output;

[0018] Construct a packaging frequency policy. Through inventory record query, check the usage frequency of the usual packaging keys, sort them according to the usage frequency priority, and give priority to using the packaging with a high-frequency priority during conversion;

[0019] Construct an execution random packaging policy to randomly select available packaging keys during the conversion process.

[0020] Based on the above technical solutions, the present invention also provides the following alternative technical solutions:

[0021] In an alternative solution: in the above Step 1, the goods packaging expression is Fgoods_pack = P([goods_name] - [pack]), where [goods_name] is the goods name and [pack] is the packaging key name;

[0022] The goods inventory expression is Fname_goods_pack = N([num] - [goods_name] - [pack]), where [num] is the inventory quantity, [goods_name] is the goods name, and [pack] is the packaging key name.

[0023] In an alternative solution: in the above Step 1, when establishing a multi-root node packaging structure tree, the main body is the logical packaging goods, which contains multiple entity goods, and the relationship is constructed simultaneously from the root node upwards.

[0024] In an alternative solution: in step one, when building a single-root-node packaging structure tree, the main body is the physical goods, and the relationship is constructed upward from the root node while building.

[0025] In an alternative solution: in step one, when establishing a multi-single-node packaging relationship, the logical packaging root node corresponds to multiple physical packaging keys. The physical packaging is not limited by type. The relationship is maintained using the minimum packaging key of the physical goods. When the logical goods packaging at the same level is determined, as long as one packaging relationship with the physical goods is determined, the relationship between the same-level packaging and the physical goods is automatically determined.

[0026] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0027] 1. The present invention can quickly, mutually convert, and adapt to the storage packaging to process complex packaging, meeting the needs of customers for processing complex nested packaging scenarios and refined requirements.

[0028] 2. The present invention provides numerous packaging conversion strategies, each with its own advantages. Customers can choose the strategy that suits their needs to meet specific business scenarios, improving user satisfaction.

[0029] 3. The present invention selects an intelligent conversion method. The conversion logic combines packaging inventory and goods inventory and provides corresponding warning methods, enhancing the overall intelligence and modularity. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] Figure 1 is a flowchart of the method of the present invention. DETAILED DESCRIPTION OF THE INVENTION

[0031] In order to make the objectives, technical solutions, and advantages of the present invention clearer and more understandable, the present invention will be further described in detail below with reference to the accompanying drawings and embodiments.

[0032] In one embodiment, as Figure 1 shown, a nested conversion method for complex packaging based on warehousing includes the following steps:

[0033] Step one: Construct a complex packaging structure tree and inventory management:

[0034] Construct a multi-structure tree: Construct the mutual relationship between the same goods packaging keys, and establish a multi-root-node packaging structure tree, a single-root-node packaging structure tree, and a multi-single-node packaging relationship. Embed different goods packaging key relationships, perform multi-root-node goods packaging and single-root-node goods packaging, and perform exception judgment and warning;

[0035] Construct packaging inventory management: Establish a goods packaging expression to manage the packaging inventory, including warehousing and outbound operations, and display the packaging ID, packaging name, packaging inventory quantity, and packaging location information;

[0036] Construct goods inventory management: Establish a goods inventory expression, manage the goods inventory, including inbound and outbound operations, display inventory ID, goods name, inventory quantity, storage location, packaging key name, inbound type, and do not store in the smallest packaging key;

[0037] Step 2: Construct a packaging conversion center;

[0038] Perform configuration management, configure input, output, and conversion logic, including global conversion strategy logic configuration, warehouse configuration, enabling packaging inventory configuration, and warning enabling configuration;

[0039] Through the intelligent conversion module, combine conversion strategies, configuration information, warehouse inventory, packaging inventory, and packaging structure tree information to convert the input required packaging into the actual output packaging;

[0040] Step 3: Construct conversion strategies;

[0041] Construct a packaging priority strategy. First, construct a packaging priority chain, or you can also select a packaging key during conversion input. Those ranked in the front are given priority, and those not selected are defaulted to disabled packaging keys;

[0042] Construct a packaging inventory strategy. When the packaging quantity in the goods inventory is insufficient, check the packaging stock. If it is sufficient, then perform packing;

[0043] Construct a quantitative packaging strategy. For the input quantitative packaging goods, follow the quantitative rules during conversion and output;

[0044] Construct a packaging frequency strategy. Through inventory record query, check the usage frequency of the usual packaging keys, sort them according to the usage frequency priority, and give priority to using the packaging with a high-frequency priority during conversion;

[0045] Construct an execution random packaging strategy, and randomly select available packaging keys during the conversion process.

[0046] In one embodiment, in the said step 1, the goods packaging expression is Fgoods_pack = P

[0047] ([goods_name] - [pack]), where [goods_name] is the goods name and [pack] is the packaging key name;

[0048] The goods inventory expression is Fname_goods_pack = N([num] - [goods_name] - [pack]), where [num] is the inventory quantity, [goods_name] is the goods name, and [pack] is the packaging key name.

[0049] In one embodiment, in the first step, when establishing a multi-root node packaging structure tree, the main body is a logically packaged good, which includes multiple physical goods, and the construction relationship is established simultaneously from the root node upwards.

[0050] In one embodiment, in the first step, when establishing a single-root node packaging structure tree, the main body is a physical good, and the construction relationship is established simultaneously from the root node upwards.

[0051] In one embodiment, in the first step, when establishing a multi-single node packaging relationship, the logical packaging root node corresponds to multiple physical packaging keys. The physical packaging is not limited in type. The relationship is maintained using the minimum packaging key of the physical good. When the logical good packaging at the same level is determined, as long as one packaging relationship with the physical good is determined, the relationship between the packaging at the same level and the physical good is automatically determined.

[0052] The above embodiments disclose a nested conversion method for complex packaging based on warehousing, and the specific process is as follows:

[0053] I. Implementation steps for constructing a complex packaging structure:

[0054] 1. Goods packaging expression:

[0055] Fgoods_pack = P([goods_name] - [pack]), where [goods_name] is the name of the good and [pack] is the name of the packaging key, for example: P(gift box - box).

[0056] 2. Goods inventory expression:

[0057] Fname_goods_pack = N([num] - [goods_name] - [pack]), where [num] is the inventory quantity, [goods_name] is the name of the good, and [pack] is the name of the packaging key, for example: N(3 - gift box - box).

[0058] 3. Construction of a multi-root node packaging structure tree:

[0059] The main body is a logically packaged good (for example: gift box), which includes multiple physical goods (for example: milk, candies). The construction relationship is established simultaneously from the root node upwards (such as P(gift box - cup) and P(gift box - bowl) are the root nodes, and P(gift box - bag) is constructed upwards. The construction relationship is: N(1 - gift box - bag) = N(5 - gift box - cup), N(1 - gift box - bag) = N(10 - gift box - bowl). P(gift box - cup) and P(gift box - bowl) are packaging at the same level and have no nested relationship).

[0060] 4. Construction of a single-root node packaging structure tree:

[0061] The main body is physical goods (e.g., milk, candies). The construction starts from the root node and builds the relationship simultaneously. For example, taking P(milk - cup) as the root node, P(gift box - case) is built upward, and the construction relationship is: N(1 - milk - case) = N(5 - milk - cup)

[0062] 5. Construction of multi - single - node packaging relationships:

[0063] The logical packaging root node corresponds to multiple entity packaging keys. The types of entity packaging are not limited. For example: N(1 - gift box - cup) = N(100 - milk - cup)+N(100 - candy - grain), N(1 - gift box - bowl) = N(50 - milk - cup)+N(50 - candy - grain). The relationship maintenance uses the minimum packaging key of physical goods. When the logical goods packaging at the same level is determined, as long as one packaging relationship with physical goods is determined, the relationship between the same - level packaging and physical goods is automatically determined.

[0064] II. Implementation steps for constructing packaging inventory and goods inventory management:

[0065] 1. Construction of packaging inventory management:

[0066] Record the situation of packaging inventory. For packaging conversion, it is necessary to query whether there is any inventory of certain packaging and the stock quantity in use. According to different use - conversion strategies, when the stock quantity is insufficient, the secondary - level stock quantity is applicable or an exception is thrown.

[0067] 2. Construction of goods inventory management:

[0068] Record the situation of goods inventory. Before packaging conversion, it is necessary to roughly verify whether the stock quantity of the goods in inventory is sufficient. When performing packaging conversion, query the inventory quantity of the goods. When the stock quantity is insufficient, an exception of insufficient stock quantity is thrown.

[0069] III. Implementation steps for constructing the conversion center:

[0070] 1. Configuration management:

[0071] (1) Logical strategy configuration: Select a packaging conversion strategy and give priority to using this strategy during packaging conversion.

[0072] (2) Unlimited packaging inventory: It is possible to enable unlimited packaging inventory, which logically means there is an infinite packaging inventory. Then there will be no situation of insufficient packaging.

[0073] (3) Packaging upper - limit configuration: When converting packaging, when the packaged goods reach this set upper limit, it will jump to the secondary - level packaging.

[0074] 2. Construction of the packaging conversion module:

[0075] Parse the input packaging. The input is like: N(5 - Gift - Box) + Quantitative N(1 - Gift - Bowl) + N(2 - Gift - Cup). The conversion module selects a conversion strategy. For example, if the priority packaging strategy is selected, the packaging order is (P(Gift - Bowl), P(Gift - Cup), P(Milk - Box), P(Milk - Cup), P(Candy - Granule)). First, look for the inventory of goods and packaging inventory according to P(Gift - Bowl). When the stock of P(Gift - Bowl) is insufficient or reaches the configured upper limit, look for P(Gift - Cup) until all conditions are met or an exception is thrown due to insufficient conditions. The output is as follows:

[0076] N(12 - Gift - Bowl) + Quantitative N(1 - Gift - Bowl) + N(3 - Gift - Cup) + N(10 - Milk - Box) + N(30 - Milk - Cup) + N(160 - Candy - Granule).

[0077] 3. Conversion Strategy Construction:

[0078] (1) Packaging Priority Strategy: First, construct a packaging priority chain. You can also select a packaging key when inputting for conversion. Those ranked in front are given priority, and those not selected are defaulted to disabled packaging keys.

[0079] (2) Packaging Inventory Strategy: After enabling this strategy, when the inventory of goods is insufficient during the conversion of packaging, check whether there is stock of the packaging. If there is stock, it can be packed in time until the packaging is insufficient or reaches the configured upper limit, and then select the next - level packaging key.

[0080] (3) Quantitative Packaging Strategy: All inputs are quantitative inventories, and the outputs are also quantitative. This is a common way to transfer inventory. Without selecting this strategy, each input packaging key also contains this option and can output quantitatively individually.

[0081] (4) Packaging Frequency Strategy: Through querying inventory records, check the usage frequency of the usual packaging keys, sort them according to the priority of usage frequency, and preferentially use the packaging with a high - frequency priority during conversion.

[0082] (5) Random Packaging Strategy: During the process of converting packaging, randomly select available packaging keys.

[0083] As described above, it is only the specific implementation manner of this application, but the protection scope of this application is not limited thereto. Any person skilled in the art within the technical scope disclosed by this application can easily think of changes or substitutions, which should all be covered within the protection scope of this application. Therefore, the protection scope of this application should be subject to the protection scope of the claims.

Claims

1. A nested conversion method for complex packaging based on warehousing, characterized in that: The following steps are involved: Step 1: Build a complex packaging structure tree and inventory management: Constructing a multi-structured tree: Constructing the mutual relationship between the same cargo packaging keys, and establishing a multi-root node packaging structure tree, a single-root node packaging structure tree, and a multi-single-node packaging relationship, embedding different cargo packaging key relationships, performing multi-root node cargo packaging, single-root node cargo packaging, and performing abnormal judgment and early warning; Build packaging inventory management: Establish cargo packaging expressions to manage packaging inventory, including warehousing and outbound operations, and display packaging ID, packaging name, packaging inventory quantity, and packaging storage location information; Build cargo inventory management: Create cargo inventory expressions to manage cargo inventory, including warehousing and outbound operations, display inventory ID, cargo name, inventory quantity, warehouse location, packaging key name, warehousing type, and do not store with the minimum packaging key; Step 2: Build a packaging conversion center; Perform configuration management and configure input, output, and conversion logic, including global conversion strategy logic configuration, warehouse configuration, packaging inventory configuration, and early warning configuration; Through the intelligent conversion module, the input demand packaging is converted into the output actual packaging by combining the conversion strategy, configuration information, warehouse inventory, packaging inventory, and packaging structure tree information; Step 3: Build a conversion strategy; Build a wrapping priority strategy. First build a wrapping priority chain. You can also select a wrapping key when converting input. The one in front takes priority. The unselected one is disabled by default. Build a packaging inventory strategy. When the number of packages in the goods inventory is insufficient, check the packaging inventory and pack it if it is sufficient; Construct quantitative packaging strategies to follow quantitative rules for input quantitative packaging goods during conversion and output; Build a packaging frequency strategy, check the usage frequency of packaging keys in the past through inventory record query, sort them by usage frequency priority, and give priority to high-frequency priority packaging during conversion; The build implements a random packing strategy, randomly selecting available packing keys during the transformation process.

2. A nested conversion method for complex packaging based on warehousing according to claim 1, characterized in that: In the step 1, the goods packaging expression is Fgoods_pack=P([goods_name]-[pack]), where [goods_name] is the name of the goods, and [pack] is the name of the packaging key; The goods inventory expression is Fname_goods_pack=N([num]-[goods_name]-[pack]), where [num] is the inventory quantity, [goods_name] is the goods name, and [pack] is the packing key name.

3. A nested conversion method for complex packaging based on warehousing according to claim 1, characterized in that: In the step 1, when a multi-root node packaging structure tree is established, the main body is the logical packaging goods, which include multiple physical goods, and the relationship is constructed from the root node upward.

4. A nested conversion method for complex packaging based on warehousing according to claim 1, characterized in that: In the step 1, when a single root node packaging structure tree is established, the subject is the physical goods, and the relationship is constructed from the root node upwards.

5. The nested conversion method of complex packaging based on warehousing according to claim 1 is characterized in that: In the step 1, when establishing a multi-node packaging relationship, the logical packaging root node corresponds to multiple physical packaging keys, the physical packaging is not limited to the type, and the relationship maintenance uses the minimum packaging key of the physical goods. When the logical goods packaging is determined at the same level, as long as there is a relationship with the physical goods packaging, the relationship between the same level packaging and the physical goods is automatically determined.

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