Information processor and information processing method

Abstract

To perform estimation considering the influence between batches or processes.SOLUTION: An information processor includes: a manufacture condition acquisition part for acquiring an n-th manufacture condition which is a manufacture condition of an n-th polymerization step that is a polymerization step of an n-th batch, among manufacture conditions including an amount of an index of a raw material of a resin in an emulsification polymerization step, and an index of a polymerization condition of a resin; a target value acquisition part for acquiring a target value of a quality index confirmed by a confirmation step of an m-th batch after the n-th batch; a manufacture information provision part for giving a target value acquired by the target value acquisition part, and an n-th manufacture condition acquired by the manufacture condition acquisition part, to correspondence information indicating a correspondence between the manufacture conditions and the quality indices of each of the batches; a result acquisition part for acquiring an m-th manufacture condition output from the correspondence information to which the n-th manufacture condition and the target value are given, as an estimation result of the manufacture condition of the polymerization step of the m-th batch; and a presentation part for presenting an estimation result acquired by the result acquisition part.SELECTED DRAWING: Figure 3

Description

Technical Field

[0001] The present disclosure relates to an information processing apparatus and an information processing method.

Background Art

[0002] Conventionally, there is a manufacturing process for manufacturing resin or the like through a plurality of steps by a so-called batch production method. For such a manufacturing process, it is preferable if the manufacturing result under certain manufacturing conditions can be estimated. Regarding the estimation of the manufacturing result, for example, the technique described in Patent Document 1 is disclosed.

Prior Art Documents

Patent Documents

[0003]

Patent Document 1

Summary of the Invention

Problems to be Solved by the Invention

[0004] In the batch production method, the manufacturing situation in the manufacturing process of the previous batch may affect the manufacturing result of the next batch. In other words, in the batch production method, a change in the manufacturing environment between the previous and next batches may affect the manufacturing result. Also, in production including a plurality of steps, even within the same batch, a change in the manufacturing environment between the previous and subsequent steps may affect the manufacturing result. However, in the conventional technology, the influence between batches or between steps within the same batch has not been sufficiently considered.

[0005] The present disclosure has been made in consideration of such circumstances, and an object thereof is to provide an information processing apparatus and an information processing method capable of performing estimation taking into account the influence between batches or between steps within the same batch.

Means for Solving the Problems

[0006] The present invention has the following aspects. [1] A first step including an emulsion polymerization step, a second step including a coagulation step and a drying step which are manufacturing steps after the first step in this order, and a third step including a confirmation step of quality indexes of either one or both of the specific gravity and processability of the resin manufactured through the first step and the second step. An information processing apparatus presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, the manufacturing conditions including an index of a raw material of the resin and an index of an emulsion polymerization condition of the resin in the emulsion polymerization step. A manufacturing condition acquisition unit for acquiring an nth manufacturing condition which is a manufacturing condition of an nth emulsion polymerization step which is the emulsion polymerization step of the nth (n is a natural number) batch, a target value acquisition unit for acquiring a target value of the quality index confirmed in the confirmation step of an mth (m is a natural number greater than n) batch after the nth batch, a manufacturing information providing unit for giving the target value acquired by the target value acquisition unit and the nth manufacturing condition acquired by the manufacturing condition acquisition unit to correspondence information indicating a correspondence relationship between the manufacturing condition and the quality index batch by batch, a result acquisition unit for acquiring, as an estimation result of the manufacturing condition of the emulsion polymerization step of the mth batch, the mth manufacturing condition output from the correspondence information given the nth manufacturing condition and the target value, and a presentation unit for presenting the estimation result acquired by the result acquisition unit. [2] The manufacturing conditions include a maintenance index indicating a maintenance status of manufacturing equipment, the correspondence information indicates a correspondence relationship between the nth manufacturing condition including the maintenance index, the mth manufacturing condition, and the mth quality index, the manufacturing condition acquisition unit acquires the nth manufacturing condition including the maintenance index, and the manufacturing information providing unit gives the target value and the nth manufacturing condition including the maintenance index to the correspondence information. The information processing apparatus according to [1]. [3] A first step including an emulsion polymerization step, a second step including a coagulation step and a drying step, which are manufacturing steps after the first step, in this order, and a third step including a confirmation step of a manufacturing result index indicating the manufacturing result of a resin manufactured through the first step and the second step, the information processing device presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, including, among manufacturing conditions including an index of a raw material of the resin and an index of emulsion polymerization conditions of the resin in the emulsion polymerization step, a nth manufacturing condition which is the manufacturing condition of the nth emulsion polymerization step which is the emulsion polymerization step of the nth (n is a natural number) batch, a first manufacturing information providing unit which gives the nth manufacturing condition acquired by the manufacturing condition acquisition unit as manufacturing information to first correspondence information indicating a correspondence relationship between the manufacturing condition and a manufacturing result index confirmed in the confirmation step, a first result acquisition unit which acquires, as an nth manufacturing result index which is the manufacturing result index of the nth batch, the manufacturing result index output from the first correspondence information given the nth manufacturing condition, a second manufacturing information providing unit which gives the nth manufacturing result index acquired by the first result acquisition unit and the nth manufacturing condition acquired by the manufacturing condition acquisition unit to second correspondence information indicating a correspondence relationship between manufacturing conditions and manufacturing result indexes batch by batch, a second result acquisition unit which acquires, as an estimated result of the manufacturing condition of the emulsion polymerization step of the mth batch, the mth manufacturing condition output from the second correspondence information given the nth manufacturing condition and the nth manufacturing result index, and a result presenting unit which presents the estimated result acquired by the second result acquisition unit. [4] The information processing device according to [3], further comprising an index presenting unit which presents the nth manufacturing result index acquired by the first result acquisition unit. [5] A first step including an emulsion polymerization step, a second step including a coagulation step and a drying step, which are manufacturing steps after the first step, in this order, and a third step including a confirmation step of quality indexes of either one or both of the specific gravity and processability of the resin manufactured through the first step and the second step, the information processing method presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, obtaining an nth manufacturing condition (where n is a natural number), which is the manufacturing condition of the nth emulsion polymerization step, which is the emulsion polymerization step of the resin in the nth batch, among the manufacturing conditions including indexes of raw materials of the resin and indexes of emulsion polymerization conditions of the resin in the emulsion polymerization step, obtaining a target value of the quality index confirmed in the confirmation step of the mth batch (where m is a natural number greater than n) after the nth batch, giving the obtained target value and the obtained nth manufacturing condition to correspondence information indicating a correspondence relationship between the manufacturing condition and the quality index for each batch, obtaining, as an estimation result of the manufacturing condition of the emulsion polymerization step of the mth batch, the mth manufacturing condition output from the correspondence information given the nth manufacturing condition and the target value, and presenting the obtained estimation result. [6] A first step including an emulsion polymerization step, a second step including a coagulation step and a drying step, which are manufacturing steps after the first step, in this order, and a third step including a confirmation step of a manufacturing result index indicating the manufacturing result of the resin manufactured through the first step and the second step, and an information processing method for presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, including, among manufacturing conditions including an index of a raw material of the resin and an index of an emulsion polymerization condition of the resin in the emulsion polymerization step, obtaining an nth manufacturing condition which is a manufacturing condition of an nth emulsion polymerization step which is the emulsion polymerization step of the nth (n is a natural number) batch; giving the obtained nth manufacturing condition as manufacturing information to first correspondence information indicating a correspondence relationship between the manufacturing condition and a manufacturing result index confirmed in the confirmation step; obtaining, as an nth manufacturing result index which is a manufacturing result index of the nth batch, the manufacturing result index output from the first correspondence information given the nth manufacturing condition; giving the obtained nth manufacturing result index and the obtained nth manufacturing condition to second correspondence information indicating a correspondence relationship between a manufacturing condition and a manufacturing result index for each batch; obtaining, as an estimated result of a manufacturing condition of the emulsion polymerization step of the mth batch, the mth manufacturing condition output from the second correspondence information given the nth manufacturing condition and the nth manufacturing result index; and presenting the obtained estimated result. [7] A first step including an emulsion polymerization step, a second step including a coagulation step and a drying step which are manufacturing steps after the first step in this order, and a third step including a confirmation step of quality indexes of either one or both of the specific gravity and processability of the resin manufactured through the first step and the second step. An information processing apparatus presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, including: a manufacturing condition acquisition unit that acquires an nth manufacturing condition which is the manufacturing condition of the nth coagulation step which is the coagulation step of the nth (n is a natural number) batch and the nth drying step which is the drying step; a target value acquisition unit that acquires a target value of the quality index confirmed in the confirmation step of the mth (m is a natural number greater than n) batch after the nth batch; a manufacturing information providing unit that gives the target value acquired by the target value acquisition unit and the nth manufacturing condition acquired by the manufacturing condition acquisition unit to correspondence information indicating the correspondence relationship between the manufacturing condition and the quality index batch by batch; a result acquisition unit that acquires, as an estimation result of the manufacturing conditions of the mth coagulation step which is the coagulation step of the mth batch and the mth drying step which is the drying step, the mth manufacturing condition output from the correspondence information given the nth manufacturing condition and the target value; and a presentation unit that presents the estimation result acquired by the result acquisition unit. [8] The manufacturing conditions include a maintenance index indicating the state of maintenance of manufacturing equipment, the correspondence information indicates the correspondence relationship between the nth manufacturing condition including the maintenance index, the mth manufacturing condition, and the mth quality index, the manufacturing condition acquisition unit acquires the nth manufacturing condition including the maintenance index, and the manufacturing information providing unit gives the target value and the nth manufacturing condition including the maintenance index to the correspondence information, the information processing apparatus according to [7]. [9] A first step including an emulsion polymerization step, a second step including a coagulation step and a drying step, which are manufacturing steps after the first step, in this order, and a third step including a confirmation step of a manufacturing result index indicating a manufacturing result of a resin manufactured through the first step and the second step, the information processing device presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, including, among manufacturing conditions including an index of coagulation conditions of the coagulation step and an index of drying conditions of the drying step, a manufacturing condition acquisition unit that acquires an nth manufacturing condition, which is a manufacturing condition of an nth coagulation step, which is the coagulation step of the nth batch (n is a natural number), and an nth drying step, which is the drying step; a first manufacturing information providing unit that provides the nth manufacturing condition acquired by the manufacturing condition acquisition unit as manufacturing information with respect to first correspondence information indicating a correspondence relationship between the manufacturing condition and a manufacturing result index confirmed in the confirmation step; a first result acquisition unit that acquires, as an nth manufacturing result index, which is a manufacturing result index of the nth batch, the manufacturing result index output from the first correspondence information provided with the nth manufacturing condition; a second manufacturing information providing unit that provides the nth manufacturing result index acquired by the first result acquisition unit and the nth manufacturing condition acquired by the manufacturing condition acquisition unit with respect to second correspondence information indicating a correspondence relationship between manufacturing conditions and manufacturing result indexes batch by batch; a second result acquisition unit that acquires, as an estimation result of manufacturing conditions of an mth coagulation step, which is the coagulation step of the mth batch, and an mth drying step, which is the drying step of the mth batch, the mth manufacturing condition output from the second correspondence information provided with the nth manufacturing condition and the nth manufacturing result index; and a result presenting unit that presents the estimation result acquired by the second result acquisition unit.

[10] The information processing device according to [9], further including an index presenting unit that presents the nth manufacturing result index acquired by the first result acquisition unit.

[11] A first step including an emulsion polymerization step, a second step including an aggregation step and a drying step, which are manufacturing steps after the first step, in this order, and a third step including a confirmation step of quality indexes of either one or both of the specific gravity and processability of the resin manufactured through the first step and the second step, the information processing method presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, including: obtaining an n-th manufacturing condition, which is a manufacturing condition of an n-th aggregation step, which is the aggregation step of the n-th (n is a natural number) batch, and an n-th drying step, which is the drying step, among manufacturing conditions including an index of aggregation conditions of the aggregation step and an index of drying conditions of the drying step; obtaining a target value of the quality index confirmed in the confirmation step of an m-th (m is a natural number greater than n) batch after the n-th batch; giving the obtained target value and the obtained n-th manufacturing condition to correspondence information indicating a correspondence relationship between the manufacturing condition and the quality index for each batch; obtaining, as an estimation result of manufacturing conditions of an m-th aggregation step, which is the aggregation step of the m-th batch, and an m-th drying step, which is the drying step, the m-th manufacturing condition output from the correspondence information given the n-th manufacturing condition and the target value; and presenting the obtained estimation result.

[12] A first step including an emulsion polymerization step, a second step including an aggregation step and a drying step, which are manufacturing steps after the first step, in this order, and a third step including a confirmation step of a manufacturing result index indicating the manufacturing result of the resin manufactured through the first step and the second step, the information processing method presenting the manufacturing conditions of the manufacturing process for manufacturing a non-melt moldable fluororesin for each batch, among the manufacturing conditions including an index of the aggregation conditions of the aggregation step and an index of the drying conditions of the drying step, obtaining the nth manufacturing condition, which is the manufacturing condition of the nth aggregation step, which is the aggregation step of the nth batch (n is a natural number), and the nth drying step, which is the drying step; giving the obtained nth manufacturing condition as manufacturing information to first correspondence information indicating the correspondence between the manufacturing condition and the manufacturing result index confirmed in the confirmation step; obtaining, as the nth manufacturing result index, which is the manufacturing result index of the nth batch, the manufacturing result index output from the first correspondence information given the nth manufacturing condition; giving the obtained nth manufacturing result index and the obtained nth manufacturing condition to second correspondence information indicating the correspondence between the manufacturing condition and the manufacturing result index for each batch; obtaining, as an estimation result of the manufacturing conditions of the mth aggregation step, which is the aggregation step of the mth batch, and the mth drying step, which is the drying step of the mth batch, the mth manufacturing condition output from the second correspondence information given the nth manufacturing condition and the nth manufacturing result index; and presenting the obtained estimation result.

[13] A first step including an emulsion polymerization step, a second step including an aggregation step and a drying step, which are manufacturing steps after the first step, in this order, and a third step including a confirmation step of quality indexes of either one or both of the specific gravity and processability of the resin manufactured through the first step and the second step, the information processing apparatus presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, including: a manufacturing condition acquisition unit that acquires a second manufacturing condition (second n-manufacturing condition) of the n-th aggregation step, which is the aggregation step of the n-th batch (n is a natural number), and the n-th drying step, which is the drying step, among the manufacturing conditions 2 including an index of aggregation conditions of the aggregation step and an index of drying conditions of the drying step; a target value acquisition unit that acquires a target value of the quality index confirmed in the confirmation step of the m-th batch (m is a natural number greater than n) after the n-th batch; a manufacturing information providing unit that gives the target value acquired by the target value acquisition unit and the second n-manufacturing condition acquired by the manufacturing condition acquisition unit to correspondence information showing a correspondence relationship among the manufacturing condition 1 including an index of a raw material of the resin and an index of emulsion polymerization conditions of the resin in the emulsion polymerization step, the manufacturing condition 2, and the quality index, batch by batch; a result acquisition unit that acquires, as an estimation result of the manufacturing condition 1 of the emulsion polymerization step of the m-th batch, the second m-manufacturing condition output from the correspondence information given the second n-manufacturing condition and the target value; and a presentation unit that presents the estimation result acquired by the result acquisition unit.

[14] The manufacturing condition 2 includes a maintenance index indicating the status of maintenance of manufacturing equipment, the correspondence information shows a correspondence relationship among the second m-manufacturing condition, the second n-manufacturing condition including the maintenance index, and the second m-quality index, the manufacturing condition acquisition unit acquires the second n-manufacturing condition including the maintenance index, and the manufacturing information providing unit gives the target value and the second n-manufacturing condition including the maintenance index to the correspondence information, the information processing apparatus according to

[13] .

[15] A first step including an emulsion polymerization step, a second step including an aggregation step and a drying step, which are manufacturing steps after the first step, in this order, and a third step including a confirmation step of a manufacturing result index indicating the manufacturing result of the resin manufactured through the first step and the second step, and an information processing apparatus for presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, including, among manufacturing conditions 2 including an index of aggregation conditions of the aggregation step and an index of drying conditions of the drying step, a manufacturing condition acquisition unit that acquires an nth manufacturing condition 2, which is the manufacturing condition 2 of the nth aggregation step, which is the aggregation step of the nth batch (n is a natural number), and the nth drying step, which is the drying step; a first manufacturing information providing unit that gives the nth manufacturing condition acquired by the manufacturing condition acquisition unit as manufacturing information to first correspondence information indicating a correspondence relationship between the manufacturing condition 2 and a manufacturing result index confirmed in the confirmation step; a first result acquisition unit that acquires, as an nth manufacturing result index, which is the manufacturing result index of the nth batch, the manufacturing result index output from the first correspondence information given the nth manufacturing condition; a second manufacturing information providing unit that gives the nth manufacturing result index acquired by the first result acquisition unit and the nth manufacturing condition 2 acquired by the manufacturing condition acquisition unit to second correspondence information indicating a correspondence relationship between manufacturing condition 1, which includes an index of a raw material of the resin and an index of emulsion polymerization conditions of the resin in the emulsion polymerization step, manufacturing condition 2, and a manufacturing result index, batch by batch; a second result acquisition unit that acquires, as an estimation result of manufacturing condition 1 of the emulsion polymerization step of the mth batch, the mth manufacturing condition 1 output from the second correspondence information given the nth manufacturing condition 2 and the nth manufacturing result index; and a result presentation unit that presents the estimation result acquired by the second result acquisition unit.

[16] The information processing apparatus according to

[15] , further including an index presentation unit that presents the nth manufacturing result index acquired by the first result acquisition unit.

[17] A first step including an emulsion polymerization step, a second step including a coagulation step and a drying step, which are manufacturing steps after the first step, in this order, and a third step including a confirmation step of quality indexes of either one or both of the specific gravity and processability of the resin manufactured through the first step and the second step, the information processing method presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, including: obtaining a second manufacturing condition 2 of an nth coagulation step, which is the coagulation step of the nth (n is a natural number) batch, and an nth drying step, which is the drying step of the nth batch, among the manufacturing conditions 2 including indexes of coagulation conditions of the coagulation step and indexes of drying conditions of the drying step; obtaining a target value of the quality indexes confirmed in the confirmation step of an mth (m is a natural number greater than n) batch after the nth batch; providing the obtained target value and the obtained second manufacturing condition 2 to correspondence information indicating a correspondence relationship among a first manufacturing condition 1 including indexes of raw materials of the resin and indexes of emulsion polymerization conditions of the resin in the emulsion polymerization step, the manufacturing condition 2, and the quality indexes, for each batch; obtaining, as an estimation result of the first manufacturing condition 1 of the emulsion polymerization step of the mth batch, a first manufacturing condition 1 of the mth batch output from the correspondence information provided with the second manufacturing condition 2 and the target value; and presenting the obtained estimation result.

[18] A first step including an emulsion polymerization step, a second step including an aggregation step and a drying step which are manufacturing steps after the first step in this order, and a third step including a confirmation step of a manufacturing result index indicating a manufacturing result of a resin manufactured through the first step and the second step, and an information processing method for presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, including: obtaining a n-th manufacturing condition 2 which is the manufacturing condition 2 of the n-th aggregation step which is the aggregation step of the n-th batch (n is a natural number) and the n-th drying step which is the drying step among the manufacturing conditions 2 including an index of the aggregation conditions of the aggregation step and an index of the drying conditions of the drying step; providing the obtained n-th manufacturing condition as manufacturing information to first correspondence information indicating a correspondence relationship between the manufacturing condition 2 and the manufacturing result index confirmed in the confirmation step; obtaining the manufacturing result index output from the first correspondence information provided with the n-th manufacturing condition as an n-th manufacturing result index which is the manufacturing result index of the n-th batch; providing the obtained n-th manufacturing result index and the obtained n-th manufacturing condition 2 to second correspondence information indicating a correspondence relationship between manufacturing condition 1 including an index of a raw material of the resin and an index of an emulsion polymerization condition of the resin in the emulsion polymerization step, the manufacturing condition 2, and the manufacturing result index for each batch; obtaining a m-th manufacturing condition 1 output from the second correspondence information provided with the n-th manufacturing condition 2 and the n-th manufacturing result index as an estimation result of the manufacturing condition 1 of the emulsion polymerization step of the m-th batch; and presenting the obtained estimation result.

[19] A first step including an emulsion polymerization step, a second step including a coagulation step and a drying step, which are manufacturing steps after the first step, in this order, and a third step including a confirmation step of quality indexes of either one or both of the specific gravity and processability of the resin manufactured through the first step and the second step. An information processing apparatus presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, including: a manufacturing condition acquisition unit that acquires a first n manufacturing condition 1, which is a manufacturing condition 1 of the nth emulsion polymerization step, which is the emulsion polymerization step of the resin in the nth (n is a natural number) batch, among manufacturing conditions including an index of a raw material of the resin and an index of an emulsion polymerization condition of the resin in the emulsion polymerization step; a target value acquisition unit that acquires a target value of the quality index confirmed in the confirmation step of the nth batch; a manufacturing information providing unit that gives the target value acquired by the target value acquisition unit and the first n manufacturing condition 1 acquired by the manufacturing condition acquisition unit to correspondence information indicating a correspondence relationship between, for each batch, the manufacturing condition 1, a manufacturing condition 2 including an index of a coagulation condition of the coagulation step and an index of a drying condition of the drying step, and the quality index; a result acquisition unit that acquires, as an estimation result of the manufacturing condition 2 of the mth coagulation step, which is the coagulation step of the nth batch, and the mth drying step, which is the drying step, the first n manufacturing condition 2 output from the correspondence information given the first n manufacturing condition 1 and the target value; and a presentation unit that presents the estimation result acquired by the result acquisition unit.

[20] The manufacturing condition 1 includes a maintenance index indicating the state of maintenance of manufacturing equipment, the correspondence information indicates a correspondence relationship between the first n manufacturing condition 2, the first n manufacturing condition 1 including the maintenance index, and the first n quality index, the manufacturing condition acquisition unit acquires the first n manufacturing condition 1 including the maintenance index, and the manufacturing information providing unit gives the target value and the first n manufacturing condition 1 including the maintenance index to the correspondence information, the information processing apparatus according to

[19] .

[21] A first step including an emulsion polymerization step, a second step including a coagulation step and a drying step which are manufacturing steps after the first step in this order, and a third step including a confirmation step of quality indexes of either one or both of the specific gravity and processability of the resin manufactured through the first step and the second step. An information processing apparatus presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, which includes obtaining a first manufacturing condition of an nth emulsion polymerization step (where n is a natural number), which is the manufacturing condition of the emulsion polymerization step of the resin in the nth batch; obtaining a target value of the quality index confirmed in the confirmation step of the nth batch; providing the obtained target value and the obtained first manufacturing condition of the nth batch to correspondence information indicating a correspondence relationship between, for each batch, the first manufacturing condition, a second manufacturing condition including indexes of coagulation conditions of the coagulation step and indexes of drying conditions of the drying step, and the quality index; obtaining, as an estimation result of the second manufacturing condition of an mth coagulation step, which is the coagulation step of the nth batch, and an mth drying step, which is the drying step, the second manufacturing condition of the nth batch output from the correspondence information provided with the first manufacturing condition of the nth batch and the target value; and presenting the obtained estimation result.

Advantages of the Invention

[0007] According to the information processing apparatus and information processing method according to the present disclosure, an estimation result taking into account the influence between batches or between steps in the same batch in the batch production method can be obtained.

Brief Description of the Drawings

[0008]

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Modes for Carrying Out the Invention

[0009] [First Embodiment] Hereinafter, embodiments of the present disclosure will be described with reference to the drawings. FIG. 1 is a diagram showing a configuration example of the information processing system 1 according to the present embodiment. The information processing system 1 includes an input device 2, an information processing device 3, a data server 4, and a display device 5. The input device 2 has a function of inputting information from the outside. For example, the input device 2 includes an operation unit (not shown) and has a function of inputting information according to an operation performed by a user. Note that information may be input to the input device 2 from another external device (for example, a production management device) without passing through the user. The information processing device 3 is composed of, for example, a computer.

[0010] The data server 4 stores various types of information. In the present embodiment, the data server 4 stores a learned model, a program corresponding to the learned model, a table in which past production results are recorded, and the like. The learned model and the table in which past production results are recorded may be stored in the data server 4 in advance, or may be updated from the outside at an arbitrary timing. Here, any model may be used as the learned model. For example, a neural network model may be used.

[0011] The display device 5 has a function of outputting information to the outside. For example, the display device 5 includes a display unit (not shown) and has a function of displaying and outputting information to be displayed on a screen.

[0012] [Manufacturing process] FIG. 2 is a diagram showing an example of the manufacturing process according to the present embodiment. The manufacturing process according to the present embodiment manufactures products (or semi-finished products; the same applies in the following description) for each batch (or for each lot; the same applies in the following description). In the following description, the manufacturing method of manufacturing products for each batch is also simply referred to as the batch production method. That is, the manufacturing process according to the present embodiment employs the batch production method. In this embodiment, a fine powder of a non-melt-moldable fluororesin is taken as an example of a product (or semi-finished product) produced by a manufacturing process, but it is not limited thereto. The non-melt-moldable fluororesin is produced by emulsion polymerization of a monomer containing fluorine. By aggregating and drying the obtained non-melt-moldable fluororesin, a fine powder of the non-melt-moldable fluororesin can be obtained. Hereinafter, the non-melt-moldable fluororesin is also simply referred to as "resin". "Non-melt-moldable" means not showing melt fluidity. "Not showing melt fluidity" means that there is no temperature at which the melt flow rate becomes 0.1 to 1000 g / 10 min at a temperature 20°C or higher than the melting point of the resin under the condition of a load of 49 N. "Melt flow rate" means the melt mass flow rate (MFR) defined in JIS K 7210:1999 (ISO 1133:1997).

[0013] As the non-melt-moldable fluororesin, for example, a polymer having a tetrafluoroethylene unit (hereinafter also referred to as "TFE unit") is preferable, and polytetrafluoroethylene (PTFE) can be mentioned.

[0014] The content of the TFE unit with respect to the total mass of the non-melt-moldable fluororesin is preferably 99% by mass or more, more preferably 99.5% by mass or more, and may be 100% by mass.

[0015] Examples of monomer units other than the TFE unit include monomer units based on hexafluoropropylene units, perfluoro(alkyl vinyl ether) units, chlorotrifluoroethylene units, vinylidene fluoride units, perfluoroalkyl ethylene units, perfluoro(2,2-dimethyl-1,3-dioxole), perfluoro(4-methoxy-1,3-dioxole), and the like. Among them, hexafluoropropylene units, perfluoro(alkyl vinyl ether) units, chlorotrifluoroethylene units, vinylidene fluoride units, and perfluoroalkyl ethylene units are preferred, and hexafluoropropylene units, perfluoro(methyl vinyl ether) units, perfluoro(propyl butyl ether) units, chlorotrifluoroethylene units, vinylidene fluoride units, and perfluorobutyl ethylene units are more preferred, and perfluoro(methyl vinyl ether) units, perfluoro(propyl butyl ether) units, and perfluorobutyl ethylene units are even more preferred. Examples of the perfluoro(alkyl vinyl ether) unit include perfluoro(methyl vinyl ether) units and perfluoro(propyl butyl ether) units. Examples of the perfluoroalkyl ethylene unit include perfluorobutyl ethylene units. The monomer units other than the TFE unit may be one kind or two or more kinds. By including monomer units other than the TFE unit, the crystallization of the resin is suppressed to a certain extent, and the tensile strength, tensile elongation, dielectric breakdown resistance, creep resistance, etc. are improved.

[0016] The manufacturing process of this embodiment includes a first process PC1, a second process PC2 which is a manufacturing process after the first process PC1, and a third process PC3. As an example, the first step PC1 includes an emulsion polymerization step PC11. Hereinafter, "emulsion polymerization" is simply referred to as "polymerization" (the same applies in the figures). The second step PC2 includes a coagulation step PC21 and a drying step PC22 in this order. The third step PC3 includes a confirmation step PC31. In the confirmation step PC31, the quality of the resin produced through the first step PC1 and the second step PC2 (for example, the molecular weight (standard specific gravity) of the resin, processability (extrusion pressure, tensile strength), presence or absence of contamination) and production efficiency (for example, yield) are confirmed. The index regarding the quality of the resin confirmed in the confirmation step PC31 is also referred to as a quality index. The index of the yield confirmed in the confirmation step PC31 is also referred to as the yield.

[0017] That is, the manufacturing process of this embodiment manufactures resin batch by batch, and includes a first step PC1 including a polymerization step PC11, a coagulation step PC21 which is a manufacturing process after the first step PC1, a second step PC2 including a drying step PC22 in this order, and a third step PC3 including a confirmation step PC31 for the quality index 442 of the resin produced through the first step PC1 and the second step PC2. Note that the first step PC1 may include other steps in addition to the polymerization step PC11. The second step PC2 may include other steps in addition to the coagulation step PC21 and the drying step PC22. The third step PC3 may include other steps in addition to the confirmation step PC31.

[0018] Note that in the following description, a manufacturing process after a certain manufacturing process is also simply referred to as a "subsequent process", and a manufacturing process before a certain manufacturing process is also simply referred to as a "preceding process". For example, the second step PC2 and the third step PC3 are subsequent processes of the first step PC1. The information processing device 3 presents either the manufacturing condition PM1 of the first step PC1 (particularly, the polymerization step PC11) or the manufacturing condition PM2 of the second step PC2 (particularly, the coagulation step PC21 and the drying step PC22) among these manufacturing processes.

[0019] In the figure, among a plurality of batches in the manufacturing process, the first batch BT1 to the third batch BT3 are shown as an example, and the description of batches after the third batch BT3 is omitted. Each of the first batch BT1 to the third batch BT3 has a polymerization step PC11, an aggregation step PC21, and a drying step PC22. The polymerization step PC11 of the first batch BT1 is also referred to as the first polymerization step PC111. Similarly, the aggregation step PC21 of the first batch BT1 is referred to as the first aggregation step PC211, and the drying step PC22 is referred to as the first drying step PC221. The confirmation step PC31 of the first batch BT1 is also referred to as the first confirmation step PC311. Regarding each step of the second batch BT2 and the third batch BT3, since it is the same as that of the first batch BT1, the description thereof is omitted.

[0020] In an example of this embodiment, the first batch BT1 to the third batch BT3 are batches adjacent to each other on the time axis. That is, the batch immediately after the first batch BT1 is the second batch BT2, and the batch immediately after the second batch BT2 is the third batch BT3. In the following description, batches adjacent to each other on the time axis are also described as the nth batch BT(n), the (n + 1)th batch BT(n + 1), the (n + 2)th batch BT(n + 2), and so on. Note that n is a natural number. Also, any batch after the nth batch BT(n) is also described as the mth batch BT(m). Note that m is a natural number greater than n. Also, particularly in the relationship between the nth batch BT(n) and the (n + 1)th batch BT(n + 1), the nth batch BT(n) is also referred to as the "previous batch", and the (n + 1)th batch BT(n + 1) is also referred to as the "subsequent batch" or "next batch".

[0021] The nth batch BT(n) starts at time t1S and ends at time t1E. The (n + 1)th batch BT(n + 1) starts at time t2S and ends at time t2E. The (n + 2)th batch BT(n + 2) starts at time t3S and ends at time t3E.

[0022] The first step PC1 of the n-th batch BT(n) (for example, the first polymerization step PC111 shown in the figure) ends at time t11E. From the time t11E when the first polymerization step PC111 ends to the time t2S when the second polymerization step PC112 starts, maintenance work (for example, light cleaning, heavy cleaning, replenishment or replacement of consumables, repair or replacement of faulty parts, etc.) of the manufacturing equipment used in the polymerization step PC11 is performed. In the following description, the maintenance work of the manufacturing equipment is also referred to as maintenance work.

[0023] In an example of this embodiment, the time t2S when the (n + 1)-th batch BT(n + 1) starts is earlier than the time t1E when the n-th batch BT(n) ends. That is, in the batch production method of this embodiment, the next batch starts before the previous batch ends. In the following description, the batch production method configured such that the next batch starts before the previous batch ends is also referred to as a pipeline method. On the other hand, the batch production method configured such that the next batch starts after the previous batch ends is also referred to as a non-pipeline method. The pipeline method has a shorter idle time of the manufacturing equipment than the non-pipeline method. Therefore, when the pipeline method is adopted, the operating efficiency of the manufacturing equipment can be increased compared to the non-pipeline method.

[0024] As described above, in the confirmation step PC31 of each batch, manufacturing result indicators such as the production efficiency (for example, yield) of the resin, quality (for example, molecular weight (standard specific gravity) of the resin, processability (extrusion pressure, tensile strength), presence or absence of contamination) are confirmed. "Standard specific gravity (hereinafter also referred to as 'SSG')" is a value that serves as an index of the average molecular weight, and the larger this value is, the smaller the molecular weight means. It can be measured in accordance with ASTM D1457-91a and D4895-91a. A lower SSG is preferable. That is, a higher average molecular weight is preferable. The extrusion pressure is the pressure when a non-melt moldable fluororesin is mixed with a petroleum-based auxiliary agent and subjected to extrusion molding. A lower extrusion pressure is preferable. The tensile strength is the strength when a tensile test is performed using the molded product formed by the above extrusion molding. A higher tensile strength is preferable. "Extrusion pressure" means the pressure required for paste extrusion in an extrusion test in which a modified PTFE fine powder prepared in a paste form under predetermined conditions is extrusion-molded under predetermined conditions. As the measurement conditions, for example, the conditions described in paragraph

[0046] of Patent No. 6801660 can be adopted. "Tensile strength" is a value obtained by obtaining a stretched bead from an extruded bead obtained in the same manner as the above extrusion pressure under predetermined conditions and performing a tensile test under predetermined conditions. As the measurement conditions, for example, the conditions described in paragraph

[0047] of Patent No. 6801660 can be adopted.

[0025] In an example of the present embodiment, among these manufacturing result indicators, a part (for example, the molecular weight (standard specific gravity) of the resin) is more dominated by the manufacturing conditions PM1 (for example, raw material index 420, polymerization condition index 430) in the first process PC1 (particularly, the polymerization process PC11) than by the index of the manufacturing conditions in the second process PC2, which is a subsequent process. That is, the manufacturing conditions PM1 of the polymerization process PC11 are dominant in the influence on these manufacturing result indicators. Therefore, in order to stabilize (or improve) the yield and quality of each batch, it is desirable that the manufacturing result indicators of the previous batch be fed back to the manufacturing conditions PM1 of the polymerization process PC11 of the next batch.

[0026] In another example of the present embodiment, a part of these manufacturing result indicators (for example, the processability of the resin (extrusion pressure, tensile strength)) is also affected by the manufacturing conditions PM2 (for example, aggregation condition index 510, drying condition index 520) in the second process PC2 (particularly, the aggregation process PC21, drying process PC22). Therefore, in order to stabilize (or improve) the yield and quality of each batch, it is also desirable that the manufacturing result indicators of the previous batch be fed back to the manufacturing conditions PM2 of the aggregation process PC21 and drying process PC22 of the next batch.

[0027] On the one hand, if the above-described pipeline method is adopted, the polymerization step PC11 of the next batch (for example, the second polymerization step PC112) will be started before the manufacturing result index is obtained in the confirmation step PC31 of the previous batch (for example, the first confirmation step PC311). For example, in an example shown in FIG. 2, the time t2S when the second polymerization step PC112 of the (n + 1)-th batch BT(n + 1) starts is earlier than the time t1E when the manufacturing result index of the n-th batch BT(n) is obtained. In an example of the figure, the manufacturing result index of the n-th batch BT(n) is fed back to the manufacturing condition PM3 of the third polymerization step PC113 that starts at the time t3S after the time t1E. That is, if the pipeline method is adopted, the manufacturing result index confirmed in the confirmation step PC31 of the previous batch cannot be fed back to the manufacturing condition PM1 of the polymerization step PC11 of the next batch. If the manufacturing result index of the previous batch can be fed back to the manufacturing condition PM1 of the polymerization step PC11 of the next batch, it is preferable because the production efficiency and quality of the next batch can be stabilized (or improved). In the above description, the first step PC1 is focused on, but the same applies to the second step PC2. If the manufacturing result index of the previous batch can be fed back to the manufacturing conditions PM2 of the aggregation step PC21 and the drying step PC22 of the next batch, it is preferable because the production efficiency and quality of the next batch can be stabilized (or improved). The information processing apparatus 3 of the present embodiment provides a function capable of feeding back the manufacturing result index PM3 of the previous batch to the manufacturing condition PM1 of the polymerization step PC11 of the next batch. Further, the information processing apparatus 3 of the present embodiment provides a function capable of feeding back the manufacturing result index PM3 of the previous batch to the manufacturing conditions PM2 of the aggregation step PC21 and the drying step P22 of the next batch.

[0028] Also, even within the same batch, the manufacturing result index PM3 may be affected by the processes. For example, when the manufacturing conditions PM1 of the first polymerization process PC111 are different from the manufacturing conditions PM1 of the second polymerization process PC112, it may be desired to obtain the same manufacturing result index PM3. In such a case, it is necessary to change the manufacturing conditions PM2 of the second aggregation process PC212 and the second drying process PC222 from the manufacturing conditions PM2 of the first aggregation process PC211 and the first drying process PC221. The information processing apparatus 3 of the present embodiment also provides a function capable of estimating the optimal manufacturing conditions PM2 of the aggregation process PC21 and the drying process P22 from the manufacturing conditions PM1 and the manufacturing result index PM3 of the polymerization process PC1 in the same batch. Hereinafter, the specific functional configuration of the information processing apparatus 3 will be described.

[0029] [Functional Configuration of Information Processing Apparatus 3 According to the First Embodiment] FIG. 3 is a diagram showing an example of the functional configuration of the information processing apparatus 3 of the present embodiment. The information processing apparatus 3 includes a manufacturing condition acquisition unit 310, a target value acquisition unit 320, a manufacturing information providing unit 330, a result acquisition unit 340, and a presentation unit 350 as its software functional units (or hardware functional units). Hereinafter, the functional configuration of the information processing apparatus 3 in the first embodiment will be described with respect to four types of embodiments A to D.

[0030] (Embodiment A) The manufacturing condition acquisition unit 310 acquires the manufacturing conditions PM1 of the nth batch BT(n) (that is, the previous batch). In the following description, the manufacturing conditions PM1 of the nth batch BT(n) are also referred to as the nth manufacturing conditions PM1-(n) (the same applies to Embodiments B to D). The manufacturing conditions PM1 include a raw material index 420 and a polymerization condition index 430. The raw material index 420 includes, for example, the type, combination, quantity, purity, raw material storage period, etc. of the raw materials. The raw materials include resin raw materials, polymerization initiators, chain transfer agents, emulsifiers, auxiliary agents, etc. Examples of resin raw materials include TFE and monomers other than TFE. Examples of polymerization initiators include persulfates such as ammonium persulfate and potassium persulfate, water-soluble organic peroxides such as disuccinic peroxide, bisglutaric peroxide, and tert-butyl hydroperoxide, oxidizing agents such as bromic acid or its salts, chloric acid or its salts, persulfuric acid or its salts, permanganic acid or its salts, and hydrogen peroxide, and reducing agents such as sulfurous acid or its salts, bisulfite or its salts, thiosulfuric acid or its salts, organic acids, hydroquinone, diimine, and metal salts such as iron(II) chloride. An example of a chain transfer agent is methanol. Examples of auxiliary agents include paraffin wax and fluorine oil. The polymerization condition index 430 includes the polymerization start pressure, polymerization pressure, polymerization time, inert analysis value, operating conditions of the stirrer in the polymerization tank, etc.

[0031] That is, the production condition acquisition unit 310 acquires the nth production condition PM1-(n), which is the production condition PM1 of the nth polymerization step PC11-(n) that is the polymerization step PC11 in the nth (n is a natural number) batch among the production conditions PM1 including the raw material index 420 of the resin and the polymerization condition index 430 in the polymerization step PC11.

[0032] Note that the nth production condition PM1-(n) may be provided by the user operating the input device 2, or may be provided from another external device (for example, a production management device) without passing through the user. That is, the production condition acquisition unit 310 may acquire the nth production condition PM1-(n) through the user, or may acquire the nth production condition PM1-(n) from another external device without passing through the user. The same applies to the provision of the nth production condition PM2-(n) in Embodiment B and the like below.

[0033] The target value acquisition unit 320 acquires the target value of the quality index 442 of the resin manufactured in the m-th batch BT(m). As an example, the m-th batch BT(m) is the batch next to the n-th batch BT(n), that is, the (n + 1)-th batch BT(n + 1). That is, the target value acquisition unit 320 acquires the target value of the batch next to the n-th batch BT(n) which is the acquisition target of the manufacturing condition acquisition unit 310.

[0034] In other words, the target value acquisition unit 320 acquires the target value of the quality index 442 confirmed in the m-th confirmation process PC31-(m) of the m-th batch BT(m) (m is a natural number greater than n) after the n-th batch BT(n).

[0035] The manufacturing information providing unit 330 provides the target value of the m-th batch BT(m) acquired by the target value acquisition unit 320 and the n-th manufacturing condition PM1-(n) acquired by the manufacturing condition acquisition unit 310 to the correspondence information 400 of the data server 4. The correspondence information 400 is information indicating the correspondence relationship between the manufacturing condition PM1 and the manufacturing result index 440 for each batch. An example of the correspondence information 400 will be described with reference to FIG. 4.

[0036] FIG. 4 is a diagram showing an example of the correspondence information 400 of the present embodiment. In the correspondence information 400, the batch number 410, the raw material index 420, the polymerization condition index 430, and the manufacturing result index 440 are associated with each other for each batch. The raw material index 420 includes the amount 421 of the resin raw material, the amount 422 of the initiator, and the purity 423 of the raw material. The polymerization condition index 430 includes the polymerization start pressure 431, the polymerization pressure 432, and the polymerization time 433. The raw material index 420 and the polymerization condition index 430 are examples of the manufacturing condition PM1. The manufacturing result index 440 includes the yield 441 and the quality index 442.

[0037] In the following description, the manufacturing condition PM1 where the batch number 410 is k (i.e., the k-th batch) is also referred to as the k-th manufacturing condition PM1-(k). Further, the manufacturing result index 440 where the batch number 410 is k + 1 (i.e., the (k + 1)-th batch) is also referred to as the (k + 1)-th manufacturing result index 440-(k + 1). The quality index 442 where the batch number 410 is k + 1 (i.e., the (k + 1)-th batch) is also referred to as the (k + 1)-th quality index 442-(k + 1). Also, in Embodiment B and the like, the manufacturing condition PM2 where the batch number 410 is k (i.e., the k-th batch) is also referred to as the k-th manufacturing condition PM2-(k).

[0038] Returning to FIG. 3, when the data server 4 is given the target value of the m-th batch BT(m) and the n-th manufacturing condition PM1-(n) from the manufacturing information providing unit 330, it selects, from the corresponding information 400, the m-th manufacturing condition PM1-(m) when the previous batch conforms to the n-th manufacturing condition PM1-(n) and the subsequent batch conforms to the target value of the m-th batch BT(m).

[0039] FIG. 5 is a diagram showing an example of the search result of the corresponding information 400 of the present embodiment. As an example, it is assumed that the n-th manufacturing condition PM1-(n) conforms to the manufacturing condition PM1 of the k-th batch BT(k) (the k-th manufacturing condition PM1-(k)), and the target value of the m-th batch BT(m) conforms to the quality index 442 of the (k + 1)-th batch BT(k + 1) (the (k + 1)-th quality index 442-(k + 1)). In this case, the data server 4 selects the manufacturing condition PM1 of the (k + 1)-th batch BT(k + 1) (the (k + 1)-th manufacturing condition PM1-(k + 1)) from the manufacturing conditions PM1 of the corresponding information 400.

[0040] A specific example in the case of (n = 10, m = n + 1, k = 1) in the above example will be described. That is, it is assumed that the 10th manufacturing condition PM1-(10) conforms to the manufacturing condition PM1-1 of the 1st batch BT1, and the target value of the 11th batch BT(11) conforms to the quality index 442 of the 2nd batch BT2 (the 2nd quality index 442-2). In this case, the data server 4 selects the manufacturing conditions PM1-2 of the second batch BT2 from among the manufacturing conditions PM1 of the correspondence information 400.

[0041] In this specification, "match" may mean that the values of the comparison target indicators are exactly the same, or that the difference between the values of the comparison target indicators is within a predetermined range.

[0042] Returning to FIG. 3, the data server 4 outputs the selected (k + 1)-th manufacturing condition PM1-(k + 1) (for example, the second manufacturing condition PM1-2) to the information processing apparatus 3 as the estimation result of the manufacturing condition PM1.

[0043] The result acquisition unit 340 acquires the manufacturing condition PM1 output by the data server 4 as the estimation result of the manufacturing condition PM1 of the polymerization step PC11 of the m-th batch BT(m).

[0044] That is, the result acquisition unit 340 acquires, as the estimation result of the manufacturing condition PM1 of the polymerization step PC11 of the m-th batch BT(m), the m-th manufacturing condition PM1-(m) output from the correspondence information 400 in which the n-th manufacturing condition PM1-(n) of the manufacturing condition PM1 and the target value are given.

[0045] (Embodiment B) The manufacturing condition acquisition unit 310 acquires the manufacturing condition PM2 of the n-th batch BT(n) (that is, the previous batch). In the following description, the manufacturing condition PM2 of the n-th batch BT(n) is also referred to as the n-th manufacturing condition PM2-(n) (the same applies in Embodiments C and D). The manufacturing condition PM2 includes an aggregation condition index 510 and a drying condition index 520. As an example, the aggregation condition index 510 includes a stirring speed, a stirring time, and the like. As an example, the drying condition index 520 includes a drying temperature, a drying time, and the like.

[0046] That is, the manufacturing condition acquisition unit 310 acquires the nth manufacturing condition PM2-(n), which is the manufacturing condition PM2 of the nth aggregation process PC21-(n) and the nth drying process PC22-(n) that are the aggregation process PC21 and the drying process PC22 of the nth batch (n is a natural number) among the manufacturing conditions PM2 including the aggregation condition index 510 in the aggregation process PC21 and the drying condition index 520 in the drying process PC22.

[0047] The target value acquisition unit 320 acquires the target value of the quality index 442 of the resin manufactured in the mth batch BT(m). The mth batch BT(m) is, as an example, the next batch of the nth batch BT(n), that is, the n+1th batch BT(n+1). That is, the target value acquisition unit 320 acquires the target value of the next batch of the nth batch BT(n) that is the acquisition target of the manufacturing condition acquisition unit 310.

[0048] In other words, the target value acquisition unit 320 acquires the target value of the quality index 442 confirmed in the mth confirmation process PC31-(m) of the mth batch BT(m) (m is a natural number greater than n) after the nth batch BT(n).

[0049] The manufacturing information providing unit 330 provides the target value of the mth batch BT(m) acquired by the target value acquisition unit 320 and the nth manufacturing condition PM2-(n) acquired by the manufacturing condition acquisition unit 310 to the correspondence information 500 of the data server 4. The correspondence information 500 is information indicating the correspondence relationship between the manufacturing condition PM2 and the manufacturing result index 440 for each batch. An example of the correspondence information 500 will be described with reference to FIG. 6.

[0050] FIG. 6 is a diagram showing an example of the correspondence information 500 of the present embodiment. In the correspondence information 500, the batch number 410, the aggregation condition index 510, the drying condition index 520, and the manufacturing result index 440 are associated with each other for each batch. The aggregation condition index 510 includes the stirring speed 511 and the stirring time 512. The drying condition index 520 includes the drying temperature 521 and the drying time 522. The aggregation condition index 510 and the drying condition index 520 are an example of the manufacturing condition PM2. The manufacturing result index 440 includes a yield 441 and a quality index 442.

[0051] Returning to FIG. 3, when the data server 4 is given the target value of the m-th batch BT(m) and the n-th manufacturing condition PM2-(n) from the manufacturing information providing unit 330, it selects the m-th manufacturing condition PM2-(m) from the corresponding information 500 when the previous batch matches the n-th manufacturing condition PM2-(n) and the subsequent batch matches the target value of the m-th batch BT(m).

[0052] FIG. 7 is a diagram showing an example of the search result of the corresponding information 500 of the present embodiment. As an example, it is assumed that the n-th manufacturing condition PM2-(n) matches the manufacturing condition PM2 (the k-th manufacturing condition PM2-(k)) of the k-th batch BT(k), and the target value of the m-th batch BT(m) matches the quality index 442 (the k + 1 quality index 442-(k + 1)) of the k + 1-th batch BT(k + 1). In this case, the data server 4 selects the manufacturing condition PM2 (the k + 1 manufacturing condition PM2-(k + 1)) of the k + 1-th batch BT(k + 1) from the manufacturing conditions PM2 of the corresponding information 500.

[0053] A specific example in the case of (n = 10, m = n + 1, k = 1) in the above example will be described. That is, it is assumed that the 10th manufacturing condition PM2-(10) matches the manufacturing condition PM2-1 of the 1st batch BT1, and the target value of the 11th batch BT(11) matches the quality index 442 (the 2nd quality index 442-2) of the 2nd batch BT2. In this case, the data server 4 selects the manufacturing condition PM2 (the 2nd manufacturing condition PM2-2) of the 2nd batch BT2 from the manufacturing conditions PM2 of the corresponding information 500.

[0054] Returning to FIG. 3, the data server 4 outputs the selected k + 1 manufacturing condition PM2-(k + 1) (for example, the 2nd manufacturing condition PM2-2) to the information processing device 3 as the estimation result of the manufacturing condition PM2.

[0055] The result acquisition unit 340 acquires the manufacturing conditions PM2 output by the data server 4 as the estimation results of the manufacturing conditions PM2 of the aggregation process PC21 and the drying process P22 of the m-th batch BT(m).

[0056] That is, the result acquisition unit 340 acquires the m-th manufacturing condition PM2-(m) output from the correspondence information 500 in which the n-th manufacturing condition PM2-(n) of the manufacturing condition PM2 and the target value are given, as the estimation results of the manufacturing conditions PM2 of the aggregation process PC21 and the drying process PC22 of the m-th batch BT(m).

[0057] (Embodiment C) The manufacturing condition acquisition unit 310 acquires the manufacturing conditions PM2 of the n-th batch BT(n) (that is, the previous batch). The manufacturing conditions PM2 are the same as those described in Embodiment B.

[0058] That is, the manufacturing condition acquisition unit 310 acquires the n-th manufacturing condition PM2-(n), which is the manufacturing condition PM2 of the n-th aggregation process PC21-(n) that is the aggregation process PC21 of the n-th (n is a natural number) batch and the n-th drying process PC22-(n) that is the drying process PC22, among the manufacturing conditions PM2 including the aggregation condition index 510 in the aggregation process PC21 and the drying condition index 520 in the drying process PC22.

[0059] The target value acquisition unit 320 acquires the target value of the quality index 442 of the resin manufactured in the m-th batch BT(m). The m-th batch BT(m) is, for example, the next batch of the n-th batch BT(n), that is, the (n + 1)-th batch BT(n + 1). That is, the target value acquisition unit 320 acquires the target value of the next batch of the n-th batch BT(n) which is the acquisition target of the manufacturing condition acquisition unit 310.

[0060] In other words, the target value acquisition unit 320 acquires the target value of the quality index 442 confirmed in the m-th confirmation process PC31-(m) of the m-th batch BT(m) (m is a natural number greater than n) after the n-th batch BT(n).

[0061] The manufacturing information providing unit 330 provides the target value of the m-th batch BT(m) acquired by the target value acquisition unit 320 and the n-th manufacturing condition PM2-(n) acquired by the manufacturing condition acquisition unit 310 to the corresponding information 600 of the data server 4. The corresponding information 600 is information indicating the correspondence relationship among the manufacturing condition PM1, the manufacturing condition PM2, and the manufacturing result index 440 for each batch. An example of the corresponding information 600 will be described with reference to FIG. 8. Note that the manufacturing condition PM1 is the same as that described in Embodiment A.

[0062] FIG. 8 is a diagram showing an example of the corresponding information 600 of the present embodiment. In the corresponding information 600, the batch number 410, the index related to the manufacturing condition PM1, the index related to the manufacturing condition PM2, and the manufacturing result index 440 are associated with each other for each batch. Note that the index related to the manufacturing condition PM1 is the same as the description in Embodiment A, and the index related to the manufacturing condition PM2 is the same as the description in Embodiment B. In FIG. 8, the description of the index other than the raw material index 420 as the index related to the manufacturing condition PM1 and the index other than the aggregation condition index 510 as the index related to the manufacturing condition PM2 is omitted. The manufacturing result index 440 includes the yield 441 and the quality index 442.

[0063] Returning to FIG. 3, when the data server 4 is provided with the target value of the m-th batch BT(m) and the n-th manufacturing condition PM2-(n) from the manufacturing information providing unit 330, it selects the m-th manufacturing condition PM1-(m) from the corresponding information 600 when the previous batch matches the n-th manufacturing condition PM2-(n) and the next batch matches the target value of the m-th batch BT(m).

[0064] FIG. 9 is a diagram showing an example of the search result of the corresponding information 600 of the present embodiment. As an example, it is assumed that the n-th manufacturing condition PM2-(n) matches the manufacturing condition PM2 of the k-th batch BT(k) (the k-th manufacturing condition PM2-(k)), and the target value of the m-th batch BT(m) matches the quality index 442 of the k + 1-th batch BT(k + 1) (the k + 1-th quality index 442-(k + 1)). In this case, the data server 4 selects the manufacturing condition PM1 of the (k + 1)-th batch BT(k + 1) (the (k + 1)-th manufacturing condition PM1-(k + 1)) from among the manufacturing conditions PM1 of the correspondence information 600.

[0065] A specific example in the case of (n = 10, m = n + 1, k = 1) in the above example will be described. That is, it is assumed that the 10th manufacturing condition PM2-(10) matches the manufacturing condition PM2-1 of the 1st batch BT1, and the target value of the 11th batch BT(11) matches the quality index 442 of the 2nd batch BT2 (the 2nd quality index 442-2). In this case, the data server 4 selects the manufacturing condition PM1 of the 2nd batch BT2 (the 2nd manufacturing condition PM1-2) from among the manufacturing conditions PM1 of the correspondence information 600.

[0066] Returning to FIG. 3, the data server 4 outputs the selected (k + 1)-th manufacturing condition PM1-(k + 1) (for example, the 2nd manufacturing condition PM1-2) to the information processing apparatus 3 as the estimation result of the manufacturing condition PM1.

[0067] The result acquisition unit 340 acquires the manufacturing condition PM1 output by the data server 4 as the estimation result of the manufacturing condition PM1 of the polymerization step P11 of the m-th batch BT(m).

[0068] That is, the result acquisition unit 340 acquires the m-th manufacturing condition PM1-(m) output from the correspondence information 600 in which the n-th manufacturing condition PM2-(n) of the manufacturing condition PM2 and the target value are given, as the estimation result of the manufacturing condition PM1 of the polymerization step PC11 of the m-th batch BT(m).

[0069] (Embodiment D) The manufacturing condition acquisition unit 310 acquires the manufacturing condition PM1 of the n-th batch BT(n). The manufacturing condition PM1 is the same as that described in Embodiment A.

[0070] That is, the manufacturing condition acquisition unit 310 acquires the nth manufacturing condition PM1-(n), which is the manufacturing condition PM1 of the nth polymerization step PC11-(n) that is the polymerization step PC11 of the nth (n is a natural number) batch, from among the manufacturing conditions PM1 including the raw material index 420 of the resin and the polymerization condition index 430 in the polymerization step PC11.

[0071] The target value acquisition unit 320 acquires the target value of the quality index 442 of the resin manufactured in the nth batch BT(n).

[0072] The manufacturing information providing unit 330 provides the target value of the nth batch BT(n) acquired by the target value acquisition unit 320 and the nth manufacturing condition PM1-(n) acquired by the manufacturing condition acquisition unit 310 to the correspondence information 600 of the data server 4. The correspondence information 600 is the same as that described in Embodiment C (Fig. 8). The manufacturing condition PM2 is the same as that described in Embodiment B.

[0073] Returning to Fig. 3, when the data server 4 is provided with the target value of the nth batch BT(n) and the nth manufacturing condition PM1-(n) from the manufacturing information providing unit 330, it selects the nth manufacturing condition PM2-(n) from the correspondence information 600 when the same batch matches the nth manufacturing condition PM1-(n) and the same batch matches the target value of the nth batch BT(n).

[0074] Fig. 10 is a diagram showing an example of the search result of the correspondence information 600 of the present embodiment. As an example, it is assumed that the nth manufacturing condition PM1-(n) matches the manufacturing condition PM1 of the kth batch BT(k) (the kth manufacturing condition PM1-(k)), and the target value of the nth batch BT(n) matches the quality index 442 of the kth batch BT(k) (the kth quality index 442-(k)). In this case, the data server 4 selects the manufacturing condition PM2 of the kth batch BT(k) (the kth manufacturing condition PM2-(k)) from the manufacturing conditions PM2 of the correspondence information 600.

[0075] Returning to Fig. 3, the data server 4 outputs the selected kth manufacturing condition PM2-(k) to the information processing device 3 as the estimation result of the manufacturing condition PM2.

[0076] The result acquisition unit 340 outputs the manufacturing condition PM2 output by the data server 4 to the information processing apparatus 3 as an estimation result of the manufacturing condition PM2 of the n-th batch BT(n).

[0077] That is, the result acquisition unit 340 acquires, as an estimation result of the manufacturing condition PM2 of the agglomeration step PC21 and the drying step PC22 of the n-th batch BT(n), the n-th manufacturing condition PM2-(n) output from the correspondence information 600 in which the n-th manufacturing condition PM1-(n) of the manufacturing condition PM1 and the target value are given.

[0078] (Common to Embodiments A to D) The presentation unit 350 outputs the estimation result acquired by the result acquisition unit 340 to the display device 5. The display device 5 displays the estimation result output by the presentation unit 350. That is, the presentation unit 350 presents the estimation result acquired by the result acquisition unit 340. The operation flow of each functional unit of the information processing apparatus 3 described above will be described with reference to FIGS. 11 to 14.

[0079] [Operation flow of information processing apparatus 3] Hereinafter, the operation flow (information processing method) of the information processing apparatus 3 in the first embodiment will be described with respect to the four types of the above-described embodiments A to D.

[0080] (Embodiment A) FIG. 11 is a diagram showing an example of the operation flow of the information processing apparatus 3 of the present embodiment. (Step S10A) The manufacturing condition acquisition unit 310 acquires the manufacturing condition PM1 of the polymerization step PC11 of the n-th batch BT(n) (that is, the n-th manufacturing condition PM1-(n)). (Step S20A) The target value acquisition unit 320 acquires the target value of the quality index 442 of the resin manufactured in the m-th batch BT(m).

[0081] (Step S30A) The manufacturing information providing unit 330 provides the n-th manufacturing condition PM1-(n) acquired in Step S10A and the target value of the m-th batch BT(m) acquired in Step S20A to the corresponding information 400 of the data server 4. The data server 4 selects the m-th manufacturing condition PM1-(m) when the previous batch conforms to the n-th manufacturing condition PM1-(n) and the subsequent batch conforms to the target value of the m-th batch BT(m) from among the manufacturing conditions PM1 and the quality indicators 442 of the corresponding information 400. The data server 4 outputs the selected m-th manufacturing condition PM1-(m) to the information processing device 3 as the estimation result of the manufacturing condition PM1.

[0082] (Step S40A) The result acquisition unit 340 acquires the m-th manufacturing condition PM1-(m) output by the data server 4 as the estimation result of the manufacturing condition PM1. (Step S50A) The presentation unit 350 outputs the estimation result of the manufacturing condition PM1 (that is, the m-th manufacturing condition PM1-(m)) acquired in Step S40A to the display device 5.

[0083] (Embodiment B) FIG. 12 is a diagram showing an example of the operation flow of the information processing device 3 of the present embodiment. (Step S10B) The manufacturing condition acquisition unit 310 acquires the manufacturing conditions PM2 (that is, the n-th manufacturing condition PM2-(n)) of the aggregation process P21 and the drying process PC22 of the n-th batch BT(n). (Step S20B) The target value acquisition unit 320 acquires the target value of the quality indicator 442 of the resin manufactured in the m-th batch BT(m).

[0084] (Step S30B) The manufacturing information providing unit 330 provides the nth manufacturing condition PM2-(n) acquired in Step S10B and the target value of the mth batch BT(m) acquired in Step S20B to the corresponding information 500 of the data server 4. The data server 4 selects the mth manufacturing condition PM2-(m) when the previous batch conforms to the nth manufacturing condition PM2-(n) and the subsequent batch conforms to the target value of the mth batch BT(m) from among the manufacturing conditions PM2 and quality indicators 442 of the corresponding information 500. The data server 4 outputs the selected mth manufacturing condition PM2-(m) to the information processing device 3 as the estimation result of the manufacturing condition PM2.

[0085] (Step S40B) The result acquisition unit 340 acquires the mth manufacturing condition PM2-(m) output by the data server 4 as the estimation result of the manufacturing condition PM2. (Step S50B) The presentation unit 350 outputs the estimation result of the manufacturing condition PM2 (that is, the mth manufacturing condition PM2-(m)) acquired in Step S40B to the display device 5.

[0086] (Embodiment C) FIG. 13 is a diagram showing an example of the operation flow of the information processing device 3 of the present embodiment. (Step S10C) The manufacturing condition acquisition unit 310 acquires the manufacturing conditions PM2 (that is, the nth manufacturing condition PM2-(n)) of the aggregation process P21 and the drying process PC22 of the nth batch BT(n). (Step S20C) The target value acquisition unit 320 acquires the target value of the quality indicator 442 of the resin manufactured in the mth batch BT(m).

[0087] (Step S30C) The manufacturing information providing unit 330 provides the nth manufacturing condition PM2-(n) acquired in Step S10C and the target value of the mth batch BT(m) acquired in Step S20C to the corresponding information 600 of the data server 4. The data server 4 selects the mth manufacturing condition PM1-(m) when the previous batch conforms to the nth manufacturing condition PM2-(n) and the subsequent batch conforms to the target value of the mth batch BT(m) from among the manufacturing conditions PM2 and quality indicators 442 of the corresponding information 600. The data server 4 outputs the selected mth manufacturing condition PM1-(m) to the information processing device 3 as the estimation result of the manufacturing condition PM1.

[0088] (Step S40C) The result acquisition unit 340 acquires the mth manufacturing condition PM1-(m) output by the data server 4 as the estimation result of the manufacturing condition PM1. (Step S50C) The presentation unit 350 outputs the estimation result of the manufacturing condition PM1 (that is, the mth manufacturing condition PM1-(m)) acquired in Step S40C to the display device 5.

[0089] (Embodiment D) FIG. 14 is a diagram showing an example of the operation flow of the information processing device 3 of this embodiment. (Step S10D) The manufacturing condition acquisition unit 310 acquires the manufacturing condition PM1 (that is, the nth manufacturing condition PM1-(n)) of the polymerization step PC11 of the nth batch BT(n). (Step S20D) The target value acquisition unit 320 acquires the target value of the quality indicator 442 of the resin manufactured in the nth batch BT(n).

[0090] (Step S30D) The manufacturing information providing unit 330 provides the nth manufacturing condition PM1-(n) acquired in Step S10D and the target value of the nth batch BT(n) acquired in Step S20D to the corresponding information 600 of the data server 4. The data server 4 selects the nth manufacturing condition PM2-(n) that matches the nth manufacturing condition PM1-(n) and the target value of the nth batch BT(n) from among the manufacturing conditions PM1 and quality indicators 442 of the corresponding information 600. The data server 4 outputs the selected nth manufacturing condition PM2-(n) to the information processing device 3 as the estimation result of the manufacturing condition PM2.

[0091] (Step S40D) The result acquisition unit 340 acquires the nth manufacturing condition PM2-(n) output by the data server 4 as the estimation result of the manufacturing condition PM2. (Step S50D) The presentation unit 350 outputs the estimation result of the manufacturing condition PM2 (that is, the nth manufacturing condition PM2-(n)) acquired in Step S40D to the display device 5.

[0092] As described above, the information processing system 1 of Embodiment A estimates the manufacturing condition PM1 of the polymerization step PC11 of the next batch based on the manufacturing condition of the polymerization step PC11 of the previous batch and the target value of the next batch in a pipeline-type manufacturing process. Therefore, according to the information processing system 1 of the present embodiment, the manufacturing result index confirmed in the confirmation step PC31 of the previous batch can be fed back to the manufacturing condition PM1 of the polymerization step PC11 of the next batch at a stage before the previous batch ends.

[0093] The information processing system 1 of Embodiment B estimates the manufacturing conditions PM2 of the aggregation step PC21 and the drying step PC22 of the next batch based on the manufacturing conditions of the aggregation step PC21 and the drying step PC22 of the previous batch and the target value of the next batch in a pipeline-type manufacturing process. Therefore, according to the information processing system 1 of the present embodiment, the manufacturing result index confirmed in the confirmation step PC31 of the previous batch can be fed back to the manufacturing conditions PM2 of the aggregation step PC21 and the drying step PC22 of the next batch at a stage before the previous batch ends.

[0094] In the information processing system 1 of Embodiment C, in a manufacturing process in a pipeline system, based on the manufacturing conditions of the aggregation process PC21 and the drying process PC22 of the previous batch and the target values of the next batch, the manufacturing conditions PM1 of the polymerization process PC11 of the next batch are estimated. Therefore, according to the information processing system 1 of the present embodiment, the manufacturing result indicators confirmed in the confirmation process PC31 of the previous batch can be fed back to the manufacturing conditions PM1 of the polymerization process PC11 of the next batch at a stage before the previous batch ends.

[0095] In the information processing system 1 of Embodiment D, based on the manufacturing conditions of the polymerization process PC11 of an arbitrary batch and the target values of the same batch, the manufacturing conditions PM2 of the aggregation process PC21 and the drying process PC22 of the same batch are estimated. Therefore, according to the information processing system 1 of the present embodiment, the manufacturing result indicators confirmed in the confirmation process PC31 of an arbitrary batch can be fed back to the manufacturing conditions PM2 of the aggregation process PC21 and the drying process PC22 of the same batch at a stage before the same batch ends.

[0096] According to the information processing system 1 configured as described above, it is possible to detect early the quality variations of the manufactured product (for example, resin) and reflect them early in the next batch. That is, according to the information processing system 1, it is possible to make a timely formulation change.

[0097] In the polymerization process PC11, the purity of the raw materials in the raw material indicator 420, the raw material storage period, and the polymerization pressure in the polymerization condition indicator 430 may have a great influence on the quality indicator 442 (for example, the molecular weight (standard specific gravity) of the resin, processability (extrusion pressure, tensile strength)). Also, in the drying process PC22, the drying temperature and drying time in the drying condition indicator 520 may also have a great influence on the quality indicator 442 (for example, the molecular weight (standard specific gravity) of the resin, processability (extrusion pressure, tensile strength)). In the correspondence information 400 and 600, the information processing system 1 includes the purity 423 of the raw material and the polymerization pressure 432 as the manufacturing condition PM1. Further, in the correspondence information 500 and 600, the information processing system 1 includes the drying temperature 521 and the drying time 522 as the manufacturing condition PM2. That is, according to the information processing system 1 of the present embodiment, by estimating the manufacturing condition PM1 of the next batch or the PM2 of the same batch in consideration of the purity 423 of the raw material and the polymerization pressure 432, the quality index 442 in the next batch or the same batch can be made more stable (or more improved). Further, according to the information processing system 1 of the present embodiment, by estimating the manufacturing condition PM1 or PM2 of the next batch in consideration of the drying temperature 521 and the drying time 522, the quality index 442 in the next batch can be made more stable (or more improved).

[0098] [Modification Example] Note that the information processing device 3 may estimate the manufacturing condition in consideration of the maintenance index PM4. For example, in the case of Embodiment A, the manufacturing condition PM1 of the polymerization step PC11 of the next batch may be estimated in consideration of the maintenance index PM4. In the case of Embodiment B, the manufacturing condition PM2 of the aggregation step PC21 and the drying step PC22 of the next batch may be estimated in consideration of the maintenance index PM4. In the case of Embodiment C, the manufacturing condition PM1 of the polymerization step PC11 of the next batch may be estimated in consideration of the maintenance index PM4. In the case of Embodiment D, the manufacturing condition PM2 of the aggregation step PC21 and the drying step PC22 of the same batch may be estimated in consideration of the maintenance index PM4.

[0099] Here, the maintenance index PM4 is an index indicating the maintenance status of the manufacturing equipment. For example, the maintenance index PM4 includes the implementation status of maintenance activities such as equipment cleaning (for example, the number of batches after heavy cleaning work), and the replacement status of consumables such as packings, filters, belts, valves, desiccants, and oils (for example, the number of batches after valve or packing replacement). Further, the maintenance index also includes the manufacturing downtime, the number of equipment points cleaned (washed), the length of the piping cleaned (washed), the number of equipment points open-maintained, and the number of updated equipment points.

[0100] That is, the manufacturing conditions PM1 or PM2 include a maintenance index PM4 indicating the status of the maintenance of the manufacturing equipment. In the case of Embodiment A, the correspondence information 400 indicates the correspondence relationship between the nth manufacturing condition PM1-(n) including the maintenance index PM4, the mth manufacturing condition PM1-(m), and the mth manufacturing result index 440-(m). The mth manufacturing condition PM1-(m) may include the maintenance index PM4. In the case of Embodiment B, the correspondence information 500 indicates the correspondence relationship between the nth manufacturing condition PM2-(n) including the maintenance index PM4, the mth manufacturing condition PM2-(m), and the mth manufacturing result index 440-(m). The mth manufacturing condition PM2-(m) may include the maintenance index PM4. In the case of Embodiment C, the correspondence information 600 indicates the correspondence relationship between the nth manufacturing condition PM2-(n) including the maintenance index PM4, the mth manufacturing condition PM1-(m), and the mth manufacturing result index 440-(m). The mth manufacturing condition PM1-(m) may include the maintenance index PM4. In the case of Embodiment D, the correspondence information 600 indicates the correspondence relationship between the nth manufacturing condition PM1-(n) including the maintenance index PM4, the nth manufacturing condition PM2-(n), and the nth manufacturing result index 440-(n). The nth manufacturing condition PM2-(n) may include the maintenance index PM4.

[0101] In the case of Embodiment A, the manufacturing condition acquisition unit 310 acquires the nth manufacturing condition PM1-(n) including the maintenance index PM4. The manufacturing information providing unit 330 provides the correspondence information 400 with a target value and the nth manufacturing condition PM1-(n) including the maintenance index PM4. That is, the manufacturing information providing unit 330 provides the correspondence information 400 with the nth manufacturing condition PM1-(n) taking into account the maintenance index PM4.

[0102] As a result, the result acquisition unit 340 acquires an estimation result of the manufacturing condition PM1 taking into account the maintenance index PM4. The presentation unit 350 outputs the estimation result of the manufacturing condition PM1 taking into account the maintenance index PM4 to the display device 5.

[0103] In the case of Embodiment B, the manufacturing condition acquisition unit 310 acquires the nth manufacturing condition PM2-(n) including the maintenance index PM4. The manufacturing information providing unit 330 gives the target value and the nth manufacturing condition PM2-(n) including the maintenance index PM4 to the correspondence information 500. That is, the manufacturing information providing unit 330 gives the nth manufacturing condition PM2-(n) taking into account the maintenance index PM4 to the correspondence information 400.

[0104] As a result, the result acquisition unit 340 acquires the estimation result of the manufacturing condition PM2 in which the maintenance index PM4 is taken into account. The presentation unit 350 outputs the estimation result of the manufacturing condition PM2 in which the maintenance index PM4 is taken into account to the display device 5.

[0105] In the case of Embodiment C, the manufacturing condition acquisition unit 310 acquires the nth manufacturing condition PM2-(n) including the maintenance index PM4. The manufacturing information providing unit 330 gives the target value and the nth manufacturing condition PM2-(n) including the maintenance index PM4 to the correspondence information 600. That is, the manufacturing information providing unit 330 gives the nth manufacturing condition PM2-(n) taking into account the maintenance index PM4 to the correspondence information 400.

[0106] As a result, the result acquisition unit 340 acquires the estimation result of the manufacturing condition PM1 in which the maintenance index PM4 is taken into account. The presentation unit 350 outputs the estimation result of the manufacturing condition PM1 in which the maintenance index PM4 is taken into account to the display device 5.

[0107] In the case of Embodiment D, the manufacturing condition acquisition unit 310 acquires the nth manufacturing condition PM1-(n) including the maintenance index PM4. The manufacturing information providing unit 330 gives the target value and the nth manufacturing condition PM1-(n) including the maintenance index PM4 to the correspondence information 600. That is, the manufacturing information providing unit 330 gives the nth manufacturing condition PM1-(n) taking into account the maintenance index PM4 to the correspondence information 400.

[0108] As a result, the result acquisition unit 340 acquires the estimation result of the manufacturing condition PM2 in which the maintenance index PM4 is taken into account. The presentation unit 350 outputs the estimation result of the manufacturing condition PM2 in which the maintenance index PM4 is taken into account to the display device 5.

[0109] Generally, when performing maintenance on manufacturing equipment such as thorough cleaning or replacing consumables, there may be a large change in the manufacturing environment between the previous batch and the next batch, or the manufacturing environment may change discontinuously. Also, each time the number of batches is stacked after the maintenance of the manufacturing equipment, the manufacturing environment may change gradually.

[0110] According to the information processing system 1 configured as in this modification example, it is possible to obtain an estimation result of the manufacturing condition PM1 or PM2 that takes into account the maintenance status of the manufacturing equipment. Therefore, according to the information processing system 1, even when the manufacturing environment changes due to the maintenance of the manufacturing equipment, it is possible to stabilize (or improve) the quality index 442 (for example, the molecular weight (standard specific gravity) of the resin, processability (extrusion pressure, tensile strength)) in the next batch.

[0111] [Modification Example A] The maintenance index PM4 includes the implementation status of minor maintenance performed relatively frequently, medium-scale maintenance performed every few months, and large-scale maintenance performed annually. When the scale of maintenance changes, the quality index may fluctuate even if the manufacturing conditions PM1 and manufacturing conditions PM2 are aligned. Therefore, especially in the first batch after the implementation of large-scale maintenance, the larger the scale of maintenance, the more likely the stability of the quality index will decrease. For example, the data server 4 may store correspondence information 400A as a learned model in which the maintenance index PM4 and the correspondence between the types of products of grades that can be manufactured in the first batch after the maintenance are learned by machine learning. In this case, the manufacturing condition acquisition unit 310 acquires the maintenance index PM4, and the manufacturing information providing unit 330 provides the maintenance index PM4 to the correspondence information 400A of the data server 4. The data server 4 selects the types of products of grades that can be manufactured in the first batch after the maintenance based on the correspondence information 400A and outputs it to the information processing device 3. According to the information system 1 configured in this way, the influence of the decrease in productivity due to maintenance can be minimized.

[0112] [Modification Example 2] In the above-described embodiments, for example, in the case of Embodiment A, the correspondence information 400 has been described as information in a table format (for example, the table illustrated in FIG. 4) in which the manufacturing condition PM1 and the manufacturing result index 440 are associated with each other for each batch. However, the present invention is not limited to this. The correspondence information 400 may be any information that shows the correspondence relationship between the nth manufacturing condition PM1-(n), the mth manufacturing condition PM1-(m), and the target value of the mth batch BT(m) (that is, the manufacturing condition PM1 of the previous batch, the manufacturing condition PM1 of the next batch, and the target value). For example, the correspondence information 400 may be a so-called learned model in which the correspondence relationship between the manufacturing condition PM1 of the previous batch and the manufacturing condition PM1 and the target value of the next batch is learned by machine learning. In this case, the data server 4 stores the correspondence information 400 as a learned model in which the correspondence relationship between the manufacturing condition PM1 of the previous batch and the manufacturing condition PM1 and the target value of the next batch is learned by machine learning. According to the information processing system 1 configured as described above, since the results of efficiently (or with high precision) learning a large amount of information by machine learning can be used, the quality index 442 (for example, the molecular weight (standard specific gravity) of the resin, workability (extrusion pressure, tensile strength)) in the next batch can be more stabilized (or improved).

[0113] Further, the correspondence information 400 may be implemented by a conditional branch type program for the correspondence relationship between the input value and the output value corresponding to the above-described learned model. Note that Modification 2 is also applicable to Embodiments B to D.

[0114] [Functional Configuration of Information Processing Apparatus 31 According to Second Embodiment] In the present embodiment, the present embodiment is different from the first embodiment in that an information processing apparatus 31 is provided instead of (or in addition to) the information processing apparatus 3 in the first embodiment described above. Since the other configurations are the same as those in the first embodiment, the description thereof will be omitted.

[0115] FIG. 15 is a diagram showing an example of the functional configuration of the information processing apparatus 31 according to the second embodiment. The information processing apparatus 31 includes, as its functional units, a manufacturing condition acquisition unit 311, a first manufacturing information providing unit 331, a second manufacturing information providing unit 332, a first result acquisition unit 341, a second result acquisition unit 342, an index presentation unit 351, and a result presentation unit 352. Hereinafter, the functional configuration of the information processing apparatus 31 in the second embodiment will be described with respect to four types of embodiments A to D.

[0116] (Embodiment A) The manufacturing condition acquisition unit 311 acquires the nth manufacturing condition PM1-(n), which is the manufacturing condition PM1 of the nth polymerization step PC11-(n). The first manufacturing information providing unit 331 provides the nth manufacturing condition PM1-(n) acquired by the manufacturing condition acquisition unit 311 as manufacturing information to the first correspondence information 401.

[0117] The first correspondence information 401 is information indicating the correspondence between the manufacturing condition PM1 for each batch and the manufacturing result index 440 confirmed in the confirmation step PC31. In an example of this embodiment, the first correspondence information 401 has the same configuration as the above-described correspondence information 400.

[0118] When the nth manufacturing condition PM1-(n) is provided from the first manufacturing information providing unit 331, the data server 4 searches the first correspondence information 401 and selects the manufacturing result index 440 that matches the nth manufacturing condition PM1-(n). The search result of the manufacturing result index 440 by the data server 4 will be described with reference to FIG. 16.

[0119] FIG. 16 is a diagram showing an example of the search result of the first correspondence information 401 in this embodiment. As an example, it is assumed that the manufacturing condition PM1 (the nth manufacturing condition PM1-(n)) of the nth batch BT(n) matches the manufacturing condition PM1 (the kth manufacturing condition PM1-(k)) of the kth batch BT(k). In this case, the data server 4 selects the manufacturing result index 440 (the kth manufacturing result index 440-(k)) of the kth batch BT(k) from the first correspondence information 401.

[0120] A specific example will be described for the case where (n = 10, m = n + 1, k = 1) in the above example. That is, it is assumed that the 10th manufacturing condition PM1-(10) matches the manufacturing condition PM1-1 of the first batch BT1. In this case, the data server 4 selects the manufacturing result index 440 (the first manufacturing result index 440-1) of the first batch BT1 from among the first correspondence information 401.

[0121] Returning to FIG. 15, the data server 4 outputs the selected manufacturing result index 440 to the information processing device 31.

[0122] The first result acquisition unit 341 acquires the manufacturing result index 440 output from the first correspondence information 401 given the nth manufacturing condition PM1-(n) as the nth manufacturing result index 440-(n) that is the manufacturing result index 440 of the nth batch BT(n).

[0123] The index presentation unit 351 outputs (i.e., presents) the nth manufacturing result index 440-(n) acquired by the first result acquisition unit 341 to the display device 5.

[0124] The second manufacturing information providing unit 332 provides the second correspondence information 402 with the nth manufacturing result index 440-(n) acquired by the first result acquisition unit 341 and the nth manufacturing condition PM1-(n) acquired by the manufacturing condition acquisition unit 311.

[0125] The second correspondence information 402 is information indicating the correspondence relationship between the manufacturing condition PM1 and the manufacturing result index 440 for each batch. In an example of the present embodiment, the second correspondence information 402 has the same configuration as the above-described correspondence information 400.

[0126] When the data server 4 is provided with the nth manufacturing condition PM1-(n) and the nth manufacturing result index 440-(n) from the second manufacturing information providing unit 332, it searches for the second corresponding information 402 and selects the manufacturing condition PM1 of the next batch (i.e., the (n + 1)th manufacturing condition PM1-(n+1)) that matches the nth manufacturing condition PM1-(n) and the nth manufacturing result index 440-(n). The search result of the manufacturing condition PM1 of the next batch by the data server 4 will be described with reference to FIG. 16 described above.

[0127] As an example, assume that the nth manufacturing condition PM1-(n) of the nth batch BT(n) matches the kth manufacturing condition PM1-(k) of the kth batch BT(k), and the nth manufacturing result index 440-(n) of the nth batch BT(n) matches the kth manufacturing result index 440-(k) of the kth batch BT(k). In this case, the data server 4 selects the manufacturing condition PM1 (the (k + 1)th manufacturing condition PM1-(k+1)) of the (k + 1)th batch BT(k+1) from the second corresponding information 402.

[0128] A specific example in the above example where (n = 10, m = n + 1, k = 1) will be described. That is, assume that the 10th manufacturing condition PM1-10 matches the 1st manufacturing condition PM1-1 of the 1st batch BT1, and the 10th manufacturing result index 440-10 matches the 1st manufacturing result index 440-1 of the 1st batch BT1. In this case, the data server 4 selects the manufacturing condition PM1 (the 2nd manufacturing condition PM1-2) of the next batch of the 1st batch BT1, that is, the 2nd batch BT2, from the second corresponding information 402.

[0129] The second result acquisition unit 342 acquires the mth manufacturing condition PM1-(m) output from the second corresponding information 402 provided with the nth manufacturing condition PM1-(n) and the nth manufacturing result index 440(n) as the estimation result of the manufacturing condition PM1 of the polymerization process PC11 of the mth batch BT(m). The result presentation unit 352 outputs (presents) the estimation result acquired by the second result acquisition unit 342 to the display device 5.

[0130] (Embodiment B) The manufacturing condition acquisition unit 311 acquires the n-th manufacturing condition PM2-(n), which is the manufacturing condition PM2 of the aggregation process PC21-(n) and the drying process PC22-(n). The first manufacturing information providing unit 331 provides the n-th manufacturing condition PM2-(n) acquired by the manufacturing condition acquisition unit 311 as manufacturing information for the first correspondence information 501.

[0131] The second correspondence information 501 is information indicating the correspondence relationship between the manufacturing condition PM2 for each batch and the manufacturing result index 440 confirmed in the confirmation process PC31. In an example of this embodiment, the first correspondence information 501 has the same configuration as the above-described correspondence information 500.

[0132] When the n-th manufacturing condition PM2-(n) is provided from the first manufacturing information providing unit 331, the data server 4 searches the first correspondence information 501 and selects the manufacturing result index 440 that matches the n-th manufacturing condition PM2-(n). The search result of the manufacturing result index 440 by the data server 4 will be described with reference to FIG. 17.

[0133] FIG. 17 is a diagram showing an example of the search result of the first correspondence information 501 of this embodiment. As an example, it is assumed that the manufacturing condition PM2 (the n-th manufacturing condition PM2-(n)) of the n-th batch BT(n) matches the manufacturing condition PM2 (the k-th manufacturing condition PM2-(k)) of the k-th batch BT(k). In this case, the data server 4 selects the manufacturing result index 440 (the k-th manufacturing result index 440-(k)) of the k-th batch BT(k) from the first correspondence information 501.

[0134] A specific example in the case of (n = 10, m = n + 1, k = 1) in the above example will be described. That is, it is assumed that the 10th manufacturing condition PM2-(10) matches the manufacturing condition PM2-1 of the first batch BT1. In this case, the data server 4 selects the manufacturing result index 440 (the first manufacturing result index 440-1) of the first batch BT1 from the first correspondence information 501.

[0135] Returning to FIG. 15, the data server 4 outputs the selected manufacturing result index 440 to the information processing apparatus 31.

[0136] The first result acquisition unit 341 acquires, as the nth manufacturing result index 440-(n) which is the manufacturing result index 440 of the nth batch BT(n), the manufacturing result index 440 output from the first correspondence information 501 provided with the nth manufacturing condition PM2-(n).

[0137] The index presentation unit 351 outputs (i.e., presents) the nth manufacturing result index 440-(n) acquired by the first result acquisition unit 341 to the display device 5.

[0138] The second manufacturing information providing unit 332 provides the second correspondence information 502 with the nth manufacturing result index 440-(n) acquired by the first result acquisition unit 341 and the nth manufacturing condition PM2-(n) acquired by the manufacturing condition acquisition unit 311.

[0139] The second correspondence information 502 is information indicating the correspondence relationship between the manufacturing condition PM2 and the manufacturing result index 440 for each batch. In an example of the present embodiment, the second correspondence information 502 has the same configuration as the above-described correspondence information 500.

[0140] When the data server 4 is provided with the nth manufacturing condition PM2-(n) and the nth manufacturing result index 440-(n) from the second manufacturing information providing unit 332, it searches the second correspondence information 502 and selects the manufacturing condition PM2 of the next batch (i.e., the (n + 1)th manufacturing condition PM2-(n + 1)) of the batch that matches the nth manufacturing condition PM2-(n) and the nth manufacturing result index 440-(n). The search result of the manufacturing condition PM2 of the next batch by the data server 4 will be described with reference to FIG. 17 described above.

[0141] As an example, it is assumed that the nth manufacturing condition PM2-(n) of the nth batch BT(n) matches the kth manufacturing condition PM2-(k) of the kth batch BT(k), and the nth manufacturing result index 440-(n) of the nth batch BT(n) matches the kth manufacturing result index 440-(k) of the kth batch BT(k). In this case, the data server 4 selects the manufacturing conditions PM2 (the (k + 1)-th manufacturing conditions PM2-(k + 1)) of the (k + 1)-th batch BT(k + 1) from among the second correspondence information 502.

[0142] A specific example in the case of (n = 10, m = n + 1, k = 1) in the above example will be described. That is, it is assumed that the 10th manufacturing conditions PM2-10 match the first manufacturing conditions PM2-1 of the first batch BT1, and the 10th manufacturing result index 440-10 matches the first manufacturing result index 440-1 of the first batch BT1. In this case, the data server 4 selects the manufacturing conditions PM2 (the second manufacturing conditions PM2-2) of the batch next to the first batch BT1, that is, the second batch BT2, from among the second correspondence information 502.

[0143] The second result acquisition unit 342 acquires, as an estimation result of the manufacturing conditions PM2 of the aggregation step PC21-(n) and the drying step PC22-(n) of the m-th batch BT(m), the m-th manufacturing conditions PM2-(m) output from the second correspondence information 502 in which the n-th manufacturing conditions PM2-(n) and the n-th manufacturing result index 440(n) are given. The result presentation unit 352 outputs (presents) the estimation result acquired by the second result acquisition unit 342 to the display device 5.

[0144] (Embodiment C) The manufacturing condition acquisition unit 311 acquires the n-th manufacturing conditions PM2-(n) that are the manufacturing conditions PM2 of the aggregation step PC21-(n) and the drying step PC22-(n). The first manufacturing information providing unit 331 gives the n-th manufacturing conditions PM2-(n) acquired by the manufacturing condition acquisition unit 311 to the first correspondence information 601 as manufacturing information.

[0145] The second correspondence information 601 is information indicating the correspondence relationship between the manufacturing conditions PM1, the manufacturing conditions PM2, and the manufacturing result index 440 confirmed in the confirmation step PC31 for each batch. In an example of this embodiment, the first correspondence information 601 has the same configuration as the above-described correspondence information 600.

[0146] When the data server 4 is given the nth manufacturing condition PM2-(n) from the first manufacturing information providing unit 331, it searches for the first corresponding information 601 and selects a manufacturing result index 440 that matches the nth manufacturing condition PM2-(n). The search result of the manufacturing result index 440 by the data server 4 will be described with reference to FIG. 18.

[0147] FIG. 18 is a diagram showing an example of the search result of the first corresponding information 601 of the present embodiment. As an example, it is assumed that the manufacturing condition PM2 (the nth manufacturing condition PM2-(n)) of the nth batch BT(n) matches the manufacturing condition PM2 (the kth manufacturing condition PM2-(k)) of the kth batch BT(k). In this case, the data server 4 selects the manufacturing result index 440 (the kth manufacturing result index 440-(k)) of the kth batch BT(k) from the first corresponding information 601.

[0148] A specific example in the case of (n = 10, m = n + 1, k = 1) in the above example will be described. That is, it is assumed that the 10th manufacturing condition PM2-(10) matches the manufacturing condition PM2-1 of the first batch BT1. In this case, the data server 4 selects the manufacturing result index 440 (the first manufacturing result index 440-1) of the first batch BT1 from the first corresponding information 601.

[0149] Returning to FIG. 15, the data server 4 outputs the selected manufacturing result index 440 to the information processing device 31.

[0150] The first result acquisition unit 341 acquires the manufacturing result index 440 output from the first corresponding information 601 when the nth manufacturing condition PM2-(n) is given as the nth manufacturing result index 440-(n) which is the manufacturing result index 440 of the nth batch BT(n).

[0151] The index presentation unit 351 outputs (that is, presents) the nth manufacturing result index 440-(n) acquired by the first result acquisition unit 341 to the display device 5.

[0152] The second manufacturing information providing unit 332 provides the second corresponding information 602 with the nth manufacturing result index 440-(n) acquired by the first result acquisition unit 341 and the nth manufacturing condition PM2-(n) acquired by the manufacturing condition acquisition unit 311.

[0153] The second corresponding information 602 is information indicating the correspondence relationship among the manufacturing condition PM1 for each batch, the manufacturing condition PM2, and the manufacturing result index 440. In an example of this embodiment, the second corresponding information 602 has the same configuration as the above-described corresponding information 600.

[0154] When the data server 4 is provided with the nth manufacturing condition PM2-(n) and the nth manufacturing result index 440-(n) from the second manufacturing information providing unit 332, it searches the second corresponding information 602 and selects the manufacturing condition PM1 of the next batch (that is, the (n + 1)th manufacturing condition PM1-(n + 1)) of the batch that matches the nth manufacturing condition PM2-(n) and the nth manufacturing result index 440-(n). The search result of the manufacturing condition PM1 of the next batch by the data server 4 will be described with reference to FIG. 18 described above.

[0155] As an example, assume that the nth manufacturing condition PM2-(n) of the nth batch BT(n) matches the kth manufacturing condition PM2-(k) of the kth batch BT(k), and the nth manufacturing result index 440-(n) of the nth batch BT(n) matches the kth manufacturing result index 440-(k) of the kth batch BT(k). In this case, the data server 4 selects the manufacturing condition PM1 (the (k + 1)th manufacturing condition PM1-(k + 1)) of the (k + 1)th batch BT(k + 1) from the second corresponding information 602.

[0156] A specific example in the case of (n = 10, m = n + 1, k = 1) in the above example will be described. That is, assume that the 10th manufacturing condition PM2-10 matches the first manufacturing condition PM2-1 of the first batch BT1, and the 10th manufacturing result index 440-10 matches the first manufacturing result index 440-1 of the first batch BT1. In this case, the data server 4 selects the manufacturing conditions PM1 (second manufacturing conditions PM1-2) of the next batch of the first batch BT1, that is, the second batch BT2, from among the second correspondence information 602.

[0157] The second result acquisition unit 342 acquires, as an estimation result of the manufacturing conditions PM1 of the polymerization step PC11-(m) of the m-th batch BT(m), the m-th manufacturing conditions PM1-(m) output from the second correspondence information 602 in which the n-th manufacturing conditions PM2-(n) and the n-th manufacturing result index 440(n) are given. The result presentation unit 352 outputs (presents) the estimation result acquired by the second result acquisition unit 342 to the display device 5.

[0158] The flow of operations of each functional unit of the information processing apparatus 31 (information processing method) described above will be described with reference to FIGS. 19 to 21.

[0159] [Flow of Operations of Information Processing Apparatus 31] Hereinafter, the flow of operations of the information processing apparatus 31 in the second embodiment will be described with respect to the three types of the above-described embodiments A to C.

[0160] (Embodiment A) FIG. 19 is a diagram showing an example of the flow of operations of the information processing apparatus 31 of the present embodiment. (Step S110A) The manufacturing condition acquisition unit 311 acquires the manufacturing conditions PM1 of the polymerization step PC11 of the n-th batch BT(n) (that is, the n-th manufacturing conditions PM1-(n)). (Step S120A) The first manufacturing information providing unit 331 gives the n-th manufacturing conditions PM1-(n) acquired in step S110A to the first correspondence information 401 of the data server 4. The data server 4 selects the manufacturing result index 440 (n-th manufacturing result index 440-(n)) of the batch that matches the n-th manufacturing conditions PM1-(n) from among the manufacturing conditions PM1 of the first correspondence information 401. The data server 4 outputs the selected n-th manufacturing result index 440-(n) to the information processing apparatus 31 as an estimation result of the manufacturing result index 440.

[0161] (Step S130A) The first result acquisition unit 341 acquires the nth manufacturing result index 440-(n) output by the data server 4 as an estimation result of the manufacturing result index 440. (Step S140A) The second manufacturing information providing unit 332 provides the nth manufacturing condition PM1-(n) acquired in Step S110A and the nth manufacturing result index 440-(n) acquired in Step S130A to the second correspondence information 402.

[0162] The data server 4 selects the mth manufacturing condition PM1-(m) of the mth batch BT(m) corresponding to the batch in which the manufacturing condition PM1 of the second correspondence information 402 matches the nth manufacturing condition PM1-(n) and the manufacturing result index 440 of the second correspondence information 402 matches the nth manufacturing result index 440-(n).

[0163] For example, in the case of (m = n + 1) described above, the data server 4 selects the (n + 1)th manufacturing condition PM1-(n + 1), that is, the (n + 1)th manufacturing condition PM1-(n + 1) which is the manufacturing condition PM1 of the batch next to the nth batch BT(n). The data server 4 outputs the selected (n + 1)th manufacturing condition PM1-(n + 1) to the information processing apparatus 31 as an estimation result of the manufacturing condition PM1.

[0164] (Step S150A) The second result acquisition unit 342 acquires the estimation result of the manufacturing condition PM1 output in Step S140A. (Step S160A) The result presentation unit 352 outputs (that is, presents) the estimation result of the manufacturing condition PM1 (that is, the mth manufacturing condition PM1-(m)) acquired in Step S150A to the display device 5.

[0165] (Embodiment B) FIG. 20 is a diagram showing an example of the operation flow of the information processing apparatus 31 of the present embodiment. (Step S110B) The manufacturing condition acquisition unit 311 acquires the manufacturing conditions PM2 (that is, the nth manufacturing condition PM2-(n)) of the aggregation process P21 and the drying process P22 of the nth batch BT(n). (Step S120B) The first manufacturing information providing unit 331 provides the nth manufacturing condition PM2-(n) obtained in step S110B to the first corresponding information 501 of the data server 4. The data server 4 selects, from among the manufacturing conditions PM2 of the first corresponding information 501, the manufacturing result index 440 (the nth manufacturing result index 440-(n)) of the batch that matches the nth manufacturing condition PM2-(n). The data server 4 outputs the selected nth manufacturing result index 440-(n) to the information processing device 31 as the estimation result of the manufacturing result index 440.

[0166] (Step S130B) The first result acquisition unit 341 acquires the nth manufacturing result index 440-(n) output by the data server 4 as the estimation result of the manufacturing result index 440. (Step S140B) The second manufacturing information providing unit 332 provides the nth manufacturing condition PM2-(n) obtained in step S110B and the nth manufacturing result index 440-(n) obtained in step S130B to the second corresponding information 502.

[0167] The data server 4 selects the mth manufacturing condition PM2-(m) of the mth batch BT(m) corresponding to the batch in which the manufacturing condition PM2 of the second corresponding information 502 matches the nth manufacturing condition PM2-(n) and the manufacturing result index 440 of the second corresponding information 502 matches the nth manufacturing result index 440-(n).

[0168] For example, in the case of (m = n + 1) described above, the data server 4 selects the (n + 1)th manufacturing condition PM2-(n + 1), that is, the manufacturing condition PM2 of the batch next to the nth batch BT(n), which is the (n + 1)th manufacturing condition PM2-(n + 1). The data server 4 outputs the selected (n + 1)th manufacturing condition PM2-(n + 1) to the information processing device 31 as the estimation result of the manufacturing condition PM2.

[0169] (Step S150B) The second result acquisition unit 342 acquires the estimation result of the manufacturing condition PM2 output in step S140B. (Step S160B) The result presentation unit 352 outputs (i.e., presents) the estimation result of the manufacturing condition PM2 (i.e., the m-th manufacturing condition PM2-(m)) obtained in Step S150B to the display device 5.

[0170] (Embodiment C) FIG. 21 is a diagram showing an example of the operation flow of the information processing apparatus 31 of the present embodiment. (Step S110C) The manufacturing condition acquisition unit 311 acquires the manufacturing conditions PM2 (i.e., the n-th manufacturing condition PM2-(n)) of the aggregation process P21 and the drying process PC22 of the n-th batch BT(n). (Step S120C) The first manufacturing information providing unit 331 provides the n-th manufacturing condition PM2-(n) acquired in Step S110C to the first corresponding information 601 of the data server 4. The data server 4 selects the manufacturing result index 440 (the n-th manufacturing result index 440-(n)) of the batch that matches the n-th manufacturing condition PM2-(n) from among the manufacturing conditions PM2 of the first corresponding information 601. The data server 4 outputs the selected n-th manufacturing result index 440-(n) to the information processing apparatus 31 as the estimation result of the manufacturing result index 440.

[0171] (Step S130C) The first result acquisition unit 341 acquires the n-th manufacturing result index 440-(n) output by the data server 4 as the estimation result of the manufacturing result index 440. (Step S140C) The second manufacturing information providing unit 332 provides the n-th manufacturing condition PM2-(n) acquired in Step S110C and the n-th manufacturing result index 440-(n) acquired in Step S130C to the second corresponding information 602.

[0172] The data server 4 selects the m-th manufacturing condition PM1-(m) of the m-th batch BT(m) corresponding to the batch in which the manufacturing condition PM2 of the second corresponding information 602 matches the n-th manufacturing condition PM2-(n) and the manufacturing result index 440 of the second corresponding information 602 matches the n-th manufacturing result index 440-(n).

[0173] For example, in the case of (m = n + 1) described above, the data server 4 selects the (n + 1)-th batch BT(n + 1), that is, the (n + 1)-th manufacturing condition PM1-(n + 1) which is the manufacturing condition PM1 of the batch next to the n-th batch BT(n). The data server 4 outputs the selected (n + 1)-th manufacturing condition PM1-(n + 1) to the information processing device 31 as the estimation result of the manufacturing condition PM1.

[0174] (Step S150C) The second result acquisition unit 342 acquires the estimation result of the manufacturing condition PM1 output in step S140C. (Step S160C) The result presentation unit 352 outputs (i.e., presents) the estimation result of the manufacturing condition PM1 (that is, the m-th manufacturing condition PM1-(m)) acquired in step S150C to the display device 5.

[0175] As described above, the information processing system 1 of the present embodiment includes the information processing device 31. In Embodiment A, the information processing device 31 estimates the manufacturing result index 440 of the current batch based on the manufacturing condition PM1 of the polymerization step PC11 of the previous batch in a manufacturing process of the pipeline method. That is, after the polymerization step PC11 is completed, the information processing device 31 can estimate the manufacturing result of the current batch at a stage before the current batch ends (for example, a stage before starting the second step PC2). Further, the information processing device 31 of the present embodiment estimates the manufacturing condition PM1 of the polymerization step PC11 of the next batch based on the result of the polymerization step PC11 of the previous batch and the estimated manufacturing result at the end of the previous batch. That is, the information processing device 31 estimates the manufacturing result of the current batch based on the manufacturing condition PM1 of the polymerization step PC11 of the previous batch, and estimates the manufacturing condition PM1 of the next batch based on the estimated manufacturing result. Therefore, according to the information processing device 31 of the present embodiment, the manufacturing result index confirmed in the confirmation step PC31 of the previous batch can be fed back to the manufacturing condition PM1 of the polymerization step PC11 of the next batch at a stage before the previous batch ends.

[0176] In Embodiment B, the information processing apparatus 31 estimates the manufacturing result index 440 of the batch based on the manufacturing result indexes of the manufacturing conditions PM2 of the aggregation step PC21 and the drying step PC22 of the previous batch in the pipeline-type manufacturing process. That is, the information processing apparatus 31 can estimate the manufacturing result of the batch at a stage before the batch ends (for example, a stage before starting the third step PC3) after the aggregation step PC21 and the drying step PC22 are completed. Further, the information processing apparatus 31 of the present embodiment estimates the manufacturing conditions PM2 of the aggregation step PC21 and the drying step PC22 of the next batch based on the results of the aggregation step PC21 and the drying step PC22 of the previous batch and the estimated manufacturing result at the end of the previous batch. That is, the information processing apparatus 31 estimates the manufacturing result of the batch based on the manufacturing conditions PM2 of the aggregation step PC21 and the drying step PC22 of the previous batch, and estimates the manufacturing conditions PM2 of the next batch based on the estimated manufacturing result. Therefore, according to the information processing apparatus 31 of the present embodiment, the manufacturing result index confirmed in the confirmation step PC31 of the previous batch can be fed back to the manufacturing conditions PM2 of the aggregation step PC21 and the drying step PC22 of the next batch at a stage before the previous batch ends.

[0177] In Embodiment C, the information processing apparatus 31 estimates the manufacturing result index 440 of the batch based on the manufacturing result indexes of the manufacturing conditions PM2 of the aggregation step PC21 and the drying step PC22 of the previous batch in the pipeline-type manufacturing process. That is, the information processing apparatus 31 can estimate the manufacturing result of the batch at a stage before the batch ends (for example, a stage before starting the third step PC3) after the aggregation step PC21 and the drying step PC22 are completed. Further, the information processing apparatus 31 of the present embodiment estimates the manufacturing conditions PM2 of the polymerization process PC22 of the next batch based on the results of the aggregation process PC21 and the drying process PC22 of the previous batch and the estimated manufacturing results at the end of the previous batch. That is, the information processing apparatus 31 estimates the manufacturing results of the batch based on the manufacturing conditions PM2 of the aggregation process PC21 and the drying process PC22 of the previous batch, and estimates the manufacturing conditions PM1 of the next batch based on the estimated manufacturing results. Therefore, according to the information processing apparatus 31 of the present embodiment, the manufacturing result index confirmed in the confirmation process PC31 of the previous batch can be fed back to the manufacturing conditions PM1 of the polymerization process PC11 of the next batch at a stage before the previous batch ends.

[0178] According to the information processing system 1 configured in this way, it is possible to detect early fluctuations in the quality of the manufactured product (for example, resin) and reflect them in the next batch at an early stage. That is, according to the information processing system 1, timely formulation changes can be made.

[0179] Further, the information processing apparatus 31 of the present embodiment includes an index presentation unit 351. The index presentation unit 351 presents the manufacturing result index 440 of the previous batch used by the information processing apparatus 31 for estimation. According to the information processing system 1 configured in this way, at the end of the polymerization process PC11 of the previous batch, the result of estimating the manufacturing result index 440 at the yield of the batch can be presented to the user. Therefore, it is possible to detect early fluctuations in the quality of the manufactured product (for example, resin) and reflect them in the next batch at an early stage. That is, according to the information processing system 1, timely formulation changes can be made.

[0180] [Modification Example] Note that the information processing apparatus 31 may estimate the manufacturing conditions in consideration of the maintenance index PM4, in the same manner as the information processing apparatus 3 described above. For example, in the case of Embodiment A, the manufacturing conditions PM1 of the polymerization step PC11 of the next batch may be estimated by taking into account the maintenance index PM4. In the case of Embodiment B, the manufacturing conditions PM2 of the aggregation step PC21 and the drying step PC22 of the next batch may be estimated by taking into account the maintenance index PM4. In the case of Embodiment C, the manufacturing conditions PM1 of the polymerization step PC11 of the next batch may be estimated by taking into account the maintenance index PM4.

[0181] According to the information processing apparatus 31 configured as described above, it is possible to obtain an estimation result of the manufacturing conditions PM1 or PM2 in which the maintenance status of the manufacturing facility is taken into account. For this reason, according to the information processing system 1, even when the manufacturing environment changes due to the maintenance of the manufacturing facility, the quality index 442 (for example, the molecular weight (standard specific gravity) of the resin, processability (extrusion pressure, tensile strength)) in the next batch can be stabilized (or improved).

[0182] Also, the first correspondence information 401 and the second correspondence information 402 may be so-called learned models that are machine-learned, similar to the correspondence information 400 described above. The first correspondence information 501 and the second correspondence information 502 may be so-called learned models that are machine-learned, similar to the correspondence information 500 described above. The first correspondence information 601 and the second correspondence information 602 may be so-called learned models that are machine-learned, similar to the correspondence information 600 described above. According to the information processing apparatus 31 configured as described above, since the results of efficiently (or with high precision) learning a large amount of information by machine learning can be used, the quality index 442 (for example, the molecular weight (standard specific gravity) of the resin, processability (extrusion pressure, tensile strength)) in the next batch can be further stabilized (or further improved).

[0183] Further, the first correspondence information 401 and the second correspondence information 402 may implement the correspondence relationship between the input value and the output value corresponding to the above-mentioned learned model by a conditional branch type program. The first correspondence information 501 and the second correspondence information 502 may implement the correspondence relationship between the input value and the output value corresponding to the above-mentioned learned model by a conditional branch type program. The first correspondence information 601 and the second correspondence information 602 may implement the correspondence relationship between the input value and the output value corresponding to the above-mentioned learned model by a conditional branch type program.

[0184] Also, the information processing system 1 may be configured by appropriately combining the functions provided by the information processing device 3 of the first embodiment and the information processing device 31 of the second embodiment described above.

[0185] Note that a program for realizing the functions of any component in any of the devices described above may be recorded on a computer-readable recording medium, and the program may be read into and executed by a computer system. Here, the "computer system" shall include an operating system or hardware such as peripheral devices. Further, the "computer-readable recording medium" refers to a portable medium such as a flexible disk, a magneto-optical disk, a ROM, a CD (Compact Disc)-ROM (Read Only Memory), or a storage device such as a hard disk built into a computer system. Furthermore, the "computer-readable recording medium" also includes a computer system internal volatile memory that holds a program for a certain period of time, such as when a program is transmitted via a network such as the Internet or a communication line such as a telephone line, and serves as a server or a client. The volatile memory may be, for example, a RAM (Random Access Memory). The recording medium may be, for example, a non-temporary recording medium.

[0186] Also, the above program may be transmitted from a computer system storing the program in a storage device or the like to another computer system via a transmission medium or by a transmission wave in the transmission medium. Here, the "transmission medium" for transmitting the program refers to a medium having a function of transmitting information, such as a network like the Internet or a communication line like a telephone line. Also, the above program may be for realizing a part of the above-described functions. Further, the above program may be a so-called difference file that can be realized in combination with a program already recorded in the computer system for the above-described functions. The difference file may be called a difference program.

[0187] Also, the functions of any component in any of the devices described above may be realized by a processor. For example, each process in the embodiment may be realized by a processor operating based on information such as a program and a computer-readable recording medium storing information such as a program. Here, the processor may be configured such that the functions of each part are realized by individual hardware, or the functions of each part are realized by integrated hardware. For example, the processor includes hardware, and the hardware may include at least one of a circuit for processing digital signals and a circuit for processing analog signals. For example, the processor may be configured using one or more circuit devices mounted on a circuit board or one or both of one or more circuit elements. As the circuit device, an IC (Integrated Circuit) or the like may be used, and as the circuit element, a resistor or a capacitor or the like may be used.

[0188] Here, the processor may be, for example, a CPU. However, the processor is not limited to the CPU, and various processors such as, for example, a GPU (Graphics Processing Unit) or a DSP (Digital Signal Processor) may be used. Also, the processor may be, for example, a hardware circuit by an ASIC (Application Specific Integrated Circuit). Also, the processor may be composed of, for example, a plurality of CPUs, or may be composed of a hardware circuit by a plurality of ASICs. Also, the processor may be composed of, for example, a combination of a plurality of CPUs and a hardware circuit by a plurality of ASICs. Also, the processor may include, for example, one or more of an amplifier circuit or a filter circuit that processes analog signals.

[0189] As described above, the embodiments of this disclosure have been described in detail with reference to the drawings. However, the specific configuration is not limited to this embodiment, and designs and the like within the scope not departing from the gist of this disclosure are also included.

Description of Reference Numerals

[0190] 1... Information processing system, 2... Input device, 3... Information processing device, 4... Data server, 5... Display device, 310... Manufacturing condition acquisition unit, 320... Target value acquisition unit, 330... Manufacturing information providing unit, 340... Result acquisition unit, 350... Presentation unit, 400... Corresponding information, 31... Information processing device, 311... Manufacturing condition acquisition unit, 331... First manufacturing information providing unit, 332... Second manufacturing information providing unit, 341... First result acquisition unit, 342... Second result acquisition unit, 351... Index presentation unit, 352... Result presentation unit

Claims

Claim 1 A first step including an emulsion polymerization step, a second step including a coagulation step and a drying step which are manufacturing steps after the first step in this order, and a third step including a confirmation step of quality indexes of either one or both of the specific gravity and processability of a resin manufactured through the first step and the second step, the information processing apparatus presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin for each batch, a manufacturing condition acquisition unit that acquires an n-th manufacturing condition which is a manufacturing condition of an n-th emulsion polymerization step which is the emulsion polymerization step of the resin among manufacturing conditions including indexes of raw materials of the resin and indexes of emulsion polymerization conditions of the resin in the emulsion polymerization step, a target value acquisition unit that acquires a target value of the quality index confirmed in the confirmation step of an m-th batch (m is a natural number greater than n) after the n-th batch, a manufacturing information providing unit that gives the target value acquired by the target value acquisition unit and the n-th manufacturing condition acquired by the manufacturing condition acquisition unit to correspondence information indicating a correspondence relationship between the manufacturing condition and the quality index for each batch, a result acquisition unit that acquires, as an estimation result of the manufacturing condition of the emulsion polymerization step of the m-th batch, the m-th manufacturing condition output from the correspondence information given the n-th manufacturing condition and the target value, and a presentation unit that presents the estimation result acquired by the result acquisition unit. The information processing apparatus is provided with the above components. Claim 2 The manufacturing conditions include a maintenance index indicating the state of maintenance of manufacturing equipment, the correspondence information indicates a correspondence relationship between the n-th manufacturing condition including the maintenance index, the m-th manufacturing condition, and the m-th quality index, the manufacturing condition acquisition unit acquires the n-th manufacturing condition including the maintenance index, and the manufacturing information providing unit gives the target value and the n-th manufacturing condition including the maintenance index to the correspondence information. The information processing apparatus according to Claim 1 Claim 3 A first step including an emulsion polymerization step, a second step including a coagulation step and a drying step which are manufacturing steps after the first step in this order, and a third step including a confirmation step of a manufacturing result index indicating a manufacturing result of a resin manufactured through the first step and the second step, the information processing apparatus presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin for each batch, A manufacturing condition acquisition unit that acquires the nth manufacturing condition, which is the manufacturing condition of the nth emulsion polymerization step, among the manufacturing conditions including the index of the raw material of the resin and the index of the emulsion polymerization condition of the resin in the emulsion polymerization step (n is a natural number); A first manufacturing information providing unit that provides the nth manufacturing condition acquired by the manufacturing condition acquisition unit as manufacturing information with respect to first correspondence information indicating the correspondence between the manufacturing condition and the manufacturing result index confirmed in the confirmation step; A first result acquisition unit that acquires, as the nth manufacturing result index, which is the manufacturing result index of the nth batch, the manufacturing result index output from the first correspondence information provided with the nth manufacturing condition; A second manufacturing information providing unit that provides the nth manufacturing result index acquired by the first result acquisition unit and the nth manufacturing condition acquired by the manufacturing condition acquisition unit with respect to second correspondence information indicating the correspondence between the manufacturing condition and the manufacturing result index for each batch; A second result acquisition unit that acquires, as an estimation result of the manufacturing condition of the emulsion polymerization step of the mth batch, the mth manufacturing condition output from the second correspondence information provided with the nth manufacturing condition and the nth manufacturing result index; An information processing apparatus comprising: a result presentation unit that presents the estimation result acquired by the second result acquisition unit.

4. The information processing apparatus according to claim 3, further comprising an index presentation unit that presents the nth manufacturing result index acquired by the first result acquisition unit.

5. An information processing method for presenting the manufacturing conditions of a manufacturing process for manufacturing a non-melting moldable fluororesin batch by batch, the method including: a first step including an emulsion polymerization step; a second step including, in this order, an aggregation step and a drying step, which are manufacturing steps after the first step; and a third step including a confirmation step for confirming quality indexes of either one or both of the specific gravity and processability of the resin manufactured through the first step and the second step, the method including: acquiring the nth manufacturing condition, which is the manufacturing condition of the nth emulsion polymerization step, among the manufacturing conditions including the index of the raw material of the resin and the index of the emulsion polymerization condition of the resin in the emulsion polymerization step (n is a natural number); acquiring a target value of the quality index confirmed in the confirmation step of the mth batch (m is a natural number greater than n) after the nth batch; providing the acquired target value and the acquired nth manufacturing condition with respect to correspondence information indicating the correspondence between the manufacturing condition and the quality index for each batch; Obtaining, as an estimation result of the production conditions of the emulsion polymerization step of the m-th batch, the m-th production condition output from the corresponding information given the n-th production condition and the target value; Presenting the obtained estimation result, an information processing method including.

6. A first step including an emulsion polymerization step, a second step including, in this order, a coagulation step and a drying step which are production steps after the first step, and a third step including a confirmation step of a production result index indicating the production result of a resin produced through the first step and the second step, the information processing method presenting the production conditions of a production process for producing a non-melt-moldable fluororesin batch by batch, Obtaining the n-th production condition which is the production condition of the n-th emulsion polymerization step which is the emulsion polymerization step of the n-th (n is a natural number) batch among the production conditions including an index of the raw material of the resin and an index of the emulsion polymerization conditions of the resin in the emulsion polymerization step; Giving the obtained n-th production condition as production information to first correspondence information indicating the correspondence between the production condition and the production result index confirmed in the confirmation step; Obtaining, as the n-th production result index which is the production result index of the n-th batch, the production result index output from the first correspondence information given the n-th production condition; Giving the obtained n-th production result index and the obtained n-th production condition to second correspondence information indicating the correspondence between the production condition and the production result index for each batch; Obtaining, as an estimation result of the production conditions of the emulsion polymerization step of the m-th batch, the m-th production condition output from the second correspondence information given the n-th production condition and the n-th production result index; Presenting the obtained estimation result, an information processing method including.

7. A first step including an emulsion polymerization step, a second step including, in this order, a coagulation step and a drying step which are production steps after the first step, and a third step including a confirmation step of at least one of the specific gravity and processability quality indexes of a resin produced through the first step and the second step, an information processing apparatus presenting the production conditions of a production process for producing a non-melt-moldable fluororesin batch by batch, Of the manufacturing conditions including the index of the aggregation conditions in the aggregation step and the index of the drying conditions in the drying step, a manufacturing condition acquisition unit that acquires the nth manufacturing condition, which is the manufacturing condition of the nth aggregation step, which is the aggregation step of the nth (n is a natural number) batch, and the nth drying step, which is the drying step; A target value acquisition unit that acquires the target value of the quality index confirmed in the confirmation step of the mth (m is a natural number greater than n) batch after the nth batch; A manufacturing information providing unit that gives the target value acquired by the target value acquisition unit and the nth manufacturing condition acquired by the manufacturing condition acquisition unit to the correspondence information indicating the correspondence between the manufacturing condition and the quality index for each batch; A result acquisition unit that acquires, as an estimation result of the manufacturing conditions of the mth aggregation step, which is the aggregation step of the mth batch, and the mth drying step, which is the drying step, the mth manufacturing condition output from the correspondence information given the nth manufacturing condition and the target value; An information processing apparatus including a presentation unit that presents the estimation result acquired by the result acquisition unit.

8. The manufacturing conditions include a maintenance index indicating the status of maintenance of manufacturing equipment. The correspondence information indicates the correspondence between the nth manufacturing condition including the maintenance index, the mth manufacturing condition, and the mth quality index. The manufacturing condition acquisition unit acquires the nth manufacturing condition including the maintenance index. The manufacturing information providing unit gives the target value and the nth manufacturing condition including the maintenance index to the correspondence information, the information processing apparatus according to claim 7.

9. An information processing apparatus that includes a first step including an emulsion polymerization step, a second step including, in this order, an aggregation step and a drying step, which are manufacturing steps after the first step, and a third step including a confirmation step of a manufacturing result index indicating the manufacturing result of a resin manufactured through the first step and the second step, and presents the manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin for each batch. Of the manufacturing conditions including the index of the aggregation conditions in the aggregation step and the index of the drying conditions in the drying step, a manufacturing condition acquisition unit that acquires the nth manufacturing condition, which is the manufacturing condition of the nth aggregation step, which is the aggregation step of the nth (n is a natural number) batch, and the nth drying step, which is the drying step; A first manufacturing information providing unit that gives, as manufacturing information, the nth manufacturing condition acquired by the manufacturing condition acquisition unit to first correspondence information indicating the correspondence between the manufacturing condition and the manufacturing result index confirmed in the confirmation step; A first result acquisition unit that acquires, as an nth production result index, the production result index output from the first correspondence information given the nth production condition; A second production information providing unit that provides the nth production result index acquired by the first result acquisition unit and the nth production condition acquired by the production condition acquisition unit to second correspondence information indicating the correspondence between the production condition and the production result index for each batch; A second result acquisition unit that acquires, as an estimation result of the production conditions of the mth aggregation step and the mth drying step, which are the aggregation step and the drying step of the mth batch, the mth production condition output from the second correspondence information given the nth production condition and the nth production result index; An information processing apparatus including a result presentation unit that presents the estimation result acquired by the second result acquisition unit.

10. The information processing apparatus according to claim 9, further comprising an index presentation unit that presents the nth production result index acquired by the first result acquisition unit.

11. A first step including an emulsion polymerization step, a second step including an aggregation step and a drying step, which are production steps after the first step, in this order, and a third step including a confirmation step of quality indexes of either or both of the specific gravity and processability of the resin produced through the first step and the second step, the information processing method for presenting the production conditions of the production process for producing a non-melt moldable fluororesin for each batch, acquiring an nth production condition, which is the production condition of the nth aggregation step and the nth drying step, which are the aggregation step of the nth batch, among the production conditions including an index of the aggregation condition of the aggregation step and an index of the drying condition of the drying step; acquiring a target value of the quality index confirmed in the confirmation step of the mth batch (m is a natural number greater than n) after the nth batch; providing the acquired target value and the acquired nth production condition to correspondence information indicating the correspondence between the production condition and the quality index for each batch; acquiring, as an estimation result of the production conditions of the mth aggregation step and the mth drying step, which are the aggregation step and the drying step of the mth batch, the mth production condition output from the correspondence information given the nth production condition and the target value; including presenting the acquired estimation result.

12. A first step including an emulsion polymerization step, a second step including an aggregation step and a drying step, which are manufacturing steps after the first step, in this order, and a third step including a confirmation step of a manufacturing result index indicating a manufacturing result of a resin manufactured through the first step and the second step, and an information processing method for presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, Among the manufacturing conditions including an index of aggregation conditions of the aggregation step and an index of drying conditions of the drying step, obtaining an nth manufacturing condition, which is the manufacturing condition of the nth aggregation step, which is the aggregation step of the nth (n is a natural number) batch, and the nth drying step, which is the drying step; Giving the obtained nth manufacturing condition as manufacturing information to first correspondence information indicating a correspondence relationship between the manufacturing condition and a manufacturing result index confirmed in the confirmation step; Obtaining, as an nth manufacturing result index, which is the manufacturing result index of the nth batch, the manufacturing result index output from the first correspondence information given the nth manufacturing condition; Giving the obtained nth manufacturing result index and the obtained nth manufacturing condition to second correspondence information indicating a correspondence relationship between manufacturing conditions and manufacturing result indexes for each batch; Obtaining, as an estimated result of manufacturing conditions of an mth aggregation step, which is the aggregation step of the mth batch, and an mth drying step, which is the drying step of the mth batch, the mth manufacturing condition output from the second correspondence information given the nth manufacturing condition and the nth manufacturing result index; Presenting the obtained estimated result, the information processing method including.

13. A first step including an emulsion polymerization step, a second step including an aggregation step and a drying step, which are manufacturing steps after the first step, in this order, and a third step including a confirmation step of one or both of the specific gravity and processability of a resin manufactured through the first step and the second step, and an information processing apparatus for presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, A manufacturing condition acquisition unit that obtains an nth manufacturing condition 2, which is the manufacturing condition 2 of the nth aggregation step, which is the aggregation step of the nth (n is a natural number) batch, and the nth drying step, which is the drying step, among the manufacturing conditions 2 including an index of aggregation conditions of the aggregation step and an index of drying conditions of the drying step; A target value acquisition unit that obtains a target value of the quality index confirmed in the confirmation step of an mth (m is a natural number greater than n) batch after the nth batch; For the correspondence information indicating the correspondence relationship among the manufacturing condition 1 including the index of the raw materials of the resin and the index of the emulsion polymerization conditions of the resin in the emulsion polymerization step for each batch, the manufacturing condition 2, and the quality index, a manufacturing information providing unit that gives the target value acquired by the target value acquisition unit and the nth manufacturing condition 2 acquired by the manufacturing condition acquisition unit, A result acquisition unit that acquires, as an estimation result of the manufacturing condition 1 of the emulsion polymerization step of the mth batch, the mth manufacturing condition 1 output from the correspondence information given the nth manufacturing condition 2 and the target value, An information processing apparatus including a presentation unit that presents the estimation result acquired by the result acquisition unit.

14. The manufacturing condition 2 includes a maintenance index indicating the status of maintenance of manufacturing equipment. The correspondence information indicates the correspondence relationship among the mth manufacturing condition 1, the nth manufacturing condition 2 including the maintenance index, and the mth quality index. The manufacturing condition acquisition unit acquires the nth manufacturing condition 2 including the maintenance index. The manufacturing information providing unit gives the target value and the nth manufacturing condition 2 including the maintenance index to the correspondence information, for the information processing apparatus according to claim 13.

15. An information processing apparatus that includes a first step including an emulsion polymerization step, a second step including, in this order, a coagulation step and a drying step which are manufacturing steps after the first step, and a third step including a confirmation step of a manufacturing result index indicating the manufacturing result of a resin manufactured through the first step and the second step, and presents the manufacturing conditions of the manufacturing process for manufacturing a non-melt moldable fluororesin for each batch, A manufacturing condition acquisition unit that acquires the nth manufacturing condition 2 which is the manufacturing condition 2 of the nth coagulation step which is the coagulation step of the nth (n is a natural number) batch and the nth drying step which is the drying step among the manufacturing condition 2 including the index of the coagulation conditions of the coagulation step and the index of the drying conditions of the drying step, A first manufacturing information providing unit that gives, as manufacturing information, the nth manufacturing condition acquired by the manufacturing condition acquisition unit to the first correspondence information indicating the correspondence relationship between the manufacturing condition 2 and the manufacturing result index confirmed in the confirmation step, A first result acquisition unit that acquires, as the nth manufacturing result index which is the manufacturing result index of the nth batch, the manufacturing result index output from the first correspondence information given the nth manufacturing condition, For the second correspondence information indicating the correspondence relationship between the manufacturing condition 1 including the indexes of the raw materials of the resin and the indexes of the emulsion polymerization conditions of the resin in the emulsion polymerization step for each batch, the manufacturing condition 2, and the manufacturing result index, a second manufacturing information providing unit that provides the nth manufacturing result index acquired by the first result acquisition unit and the nth manufacturing condition 2 acquired by the manufacturing condition acquisition unit; A second result acquisition unit that acquires, as an estimation result of the manufacturing condition 1 of the emulsion polymerization step of the mth batch, the mth manufacturing condition 1 output from the second correspondence information provided with the nth manufacturing condition 2 and the nth manufacturing result index; An information processing apparatus comprising: a result presentation unit that presents the estimation result acquired by the second result acquisition unit.

16. The information processing apparatus according to claim 15, further comprising an index presentation unit that presents the nth manufacturing result index acquired by the first result acquisition unit.

17. A first step including an emulsion polymerization step, a second step including, in this order, an aggregation step and a drying step which are manufacturing steps after the first step, and a third step including a confirmation step of quality indexes of either one or both of the specific gravity and processability of the resin manufactured through the first step and the second step, the information processing method presenting the manufacturing conditions of the manufacturing process for manufacturing a non-melt moldable fluororesin for each batch, comprising: acquiring, among the manufacturing condition 2 including the indexes of the aggregation conditions of the aggregation step and the indexes of the drying conditions of the drying step, the nth manufacturing condition 2 which is the manufacturing condition 2 of the nth aggregation step which is the aggregation step of the nth (n is a natural number) batch and the nth drying step which is the drying step; acquiring the target value of the quality index confirmed in the confirmation step of the mth (m is a natural number greater than n) batch after the nth batch; providing the acquired target value and the acquired nth manufacturing condition 2 to the correspondence information indicating the correspondence relationship between the manufacturing condition 1 including the indexes of the raw materials of the resin and the indexes of the emulsion polymerization conditions of the resin in the emulsion polymerization step for each batch, the manufacturing condition 2, and the quality index; acquiring, as an estimation result of the manufacturing condition 1 of the emulsion polymerization step of the mth batch, the mth manufacturing condition 1 output from the correspondence information provided with the nth manufacturing condition 2 and the target value; presenting the acquired estimation result.

18. A first step including an emulsion polymerization step, a second step including an aggregation step and a drying step, which are manufacturing steps after the first step, in this order, and a third step including a confirmation step of a manufacturing result index indicating a manufacturing result of a resin manufactured through the first step and the second step, the information processing method presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, Of manufacturing conditions 2 including an index of aggregation conditions of the aggregation step and an index of drying conditions of the drying step, obtaining the nth manufacturing condition 2, which is the manufacturing condition 2 of the nth aggregation step, which is the aggregation step of the nth (n is a natural number) batch, and the nth drying step, which is the drying step Giving the obtained nth manufacturing condition as manufacturing information to first correspondence information indicating a correspondence relationship between the manufacturing conditions 2 and a manufacturing result index confirmed in the confirmation step Obtaining, as the nth manufacturing result index, which is the manufacturing result index of the nth batch, the manufacturing result index output from the first correspondence information given the nth manufacturing condition Giving the obtained nth manufacturing result index and the obtained nth manufacturing condition 2 to second correspondence information indicating a correspondence relationship between manufacturing condition 1 including an index of a raw material of the resin and an index of an emulsion polymerization condition of the resin in the emulsion polymerization step, manufacturing condition 2, and a manufacturing result index, for each batch Obtaining, as an estimation result of the manufacturing condition 1 of the emulsion polymerization step of the mth batch, the mth manufacturing condition 1 output from the second correspondence information given the nth manufacturing condition 2 and the nth manufacturing result index Including presenting the obtained estimation result. An information processing method

19. A first step including an emulsion polymerization step, a second step including an aggregation step and a drying step, which are manufacturing steps after the first step, in this order, and a third step including a confirmation step of a quality index of either one or both of the specific gravity and processability of a resin manufactured through the first step and the second step, an information processing apparatus presenting manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, A manufacturing condition acquisition unit that obtains the nth manufacturing condition 1, which is the manufacturing condition 1 of the nth emulsion polymerization step, which is the emulsion polymerization step of the nth (n is a natural number) batch, among manufacturing conditions including an index of a raw material of the resin in the emulsion polymerization step and an index of an emulsion polymerization condition of the resin A target value acquisition unit that acquires a target value of the quality index confirmed in the confirmation step of the nth batch; For the correspondence information indicating the correspondence relationship between the manufacturing condition 1 for each batch, the manufacturing condition 2 including the index of the aggregation condition of the aggregation step and the index of the drying condition of the drying step, and the quality index, a manufacturing information providing unit that gives the target value acquired by the target value acquisition unit and the nth manufacturing condition 1 acquired by the manufacturing condition acquisition unit; A result acquisition unit that acquires the nth manufacturing condition 2 output from the correspondence information given the nth manufacturing condition 1 and the target value as an estimation result of the manufacturing condition 2 of the mth aggregation step which is the aggregation step of the nth batch and the mth drying step which is the drying step; An information processing apparatus including a presentation unit that presents the estimation result acquired by the result acquisition unit.

20. The manufacturing condition 1 includes a maintenance index indicating the status of maintenance of manufacturing equipment; The correspondence information indicates the correspondence relationship between the nth manufacturing condition 2, the nth manufacturing condition 1 including the maintenance index, and the nth quality index; The manufacturing condition acquisition unit acquires the nth manufacturing condition 1 including the maintenance index; The manufacturing information providing unit gives the target value and the nth manufacturing condition 1 including the maintenance index to the correspondence information, the information processing apparatus according to claim 19.

21. An information processing apparatus that presents the manufacturing conditions of a manufacturing process for manufacturing a non-melt moldable fluororesin batch by batch, including a first step including an emulsion polymerization step, a second step including an aggregation step and a drying step which are manufacturing steps after the first step in this order, and a third step including a confirmation step of a quality index of either or both of the specific gravity and processability of the resin manufactured through the first step and the second step, Acquiring the nth manufacturing condition 1 which is the manufacturing condition 1 of the nth emulsion polymerization step which is the emulsion polymerization step of the resin in the emulsion polymerization step, including the index of the raw material of the resin and the index of the emulsion polymerization condition of the resin; Acquiring the target value of the quality index confirmed in the confirmation step of the nth batch; Giving the acquired target value and the acquired nth manufacturing condition 1 to the correspondence information indicating the correspondence relationship between the manufacturing condition 1 for each batch, the manufacturing condition 2 including the index of the aggregation condition of the aggregation step and the index of the drying condition of the drying step, and the quality index; Obtaining, as an estimation result of the manufacturing condition 2 of the m-th aggregation step which is the aggregation step of the n-th batch and the m-th drying step which is the drying step, the n-th manufacturing condition 2 output from the corresponding information given the n-th manufacturing condition 1 and the target value; Presenting the obtained estimation result; An information processing method including.

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