A condensation box fluid design method based on fluid analysis

Abstract

The present invention provides a condensate box fluid design method based on fluid analysis, wherein the method includes: performing fluid analysis inside a stove-steam-bake combination machine based on fluid analysis technology, designing air inlet parameters of a target air inlet on a side panel of the steam oven; obtaining steam pipe interface parameters of the steam oven; obtaining condensate box specification parameters; and performing condensate box fluid design based on the condensate box specification parameters, steam pipe interface parameters, and air inlet parameters. The present invention provides a condensate box fluid design method based on fluid analysis, which introduces fluid analysis technology, obtains fluid analysis results, determines appropriate air inlet parameters for the target air inlet on the side panel of the steam oven, and comprehensively designs the fluid flow path inside the condensate box based on the air inlet parameters, steam pipe interface parameters, and condensate box specification parameters, thereby discharging hot gases around the circuit board inside the steam box, reducing thermal failures, and improving the rationality of the internal fluid design of the stove-steam-bake combination machine.

Description

Technical Field

[0001] The present invention relates to the technical field of fluid analysis, and in particular to a condensation box fluid design method based on fluid analysis. Background Art

[0002] A stove-steam oven is a multifunctional kitchen appliance that combines a range hood, cooktop, and steam oven. With its highly integrated design, diverse functionality, and superior performance, it's becoming a popular choice in modern kitchens. During operation, exhaust from the steam oven passes through a condensate box before entering the stove housing and finally being exhausted along with the cooking fumes from the stove.

[0003] The invention patent application number 201910090212.6 discloses an integrated stove with a cooking device, comprising a cooking device having a cooking cavity and a stove mounted on the cooking device. The stove comprises a stove shell, the cooking cavity having an air outlet, the stove shell having an air inlet and an exhaust port that are fluidically connected thereto, the air outlet of the cooking cavity being fluidically connected to the air inlet of the stove shell. The invention discharges exhaust gas from the cooking cavity from bottom to top into the stove and discharges it along with the oil smoke generated by the stove, thereby achieving the overall exhaust of the smoke generated by the integrated stove with a cooking device, improving exhaust efficiency, and preventing the highly concentrated oil smoke generated by the stove from entering the steam-bake combination machine and affecting the cooking quality of food in the steam-bake combination machine, thereby improving the exhaust effect.

[0004] However, the above-mentioned prior art is that the air outlet port on the stove shell blows the air to the condensation box, which can only achieve heat dissipation of electronic components inside the stove. The probability of failure when the steam oven is overheated is high, and the internal fluid design is not suitable.

[0005] In view of this, there is an urgent need for a condensation box fluid design method based on fluid analysis to at least solve the above-mentioned shortcomings. Summary of the Invention

[0006] One of the purposes of the present invention is to provide a condensate box fluid design method based on fluid analysis, introduce fluid analysis technology, obtain fluid analysis results in the stove-steam-bake combination machine, determine the appropriate air inlet parameters of the target air inlet on the side panel of the steam oven, and comprehensively design the fluid flow path inside the condensate box according to the air inlet parameters, steam pipe interface parameters and condensate box specification parameters, so as to discharge the hot gas around the circuit board inside the steam box together, reduce thermal failures and improve the rationality of the internal fluid design of the stove-steam-bake combination machine.

[0007] An embodiment of the present invention provides a condensation box fluid design method based on fluid analysis, comprising:

[0008] Based on fluid analysis technology, the flow inside the oven was analyzed to design the air inlet parameters of the target air inlet on the side panel of the oven.

[0009] Get the steam pipe interface parameters of the steam oven;

[0010] Get the specifications of the condensate box;

[0011] The condensate box fluid design is carried out according to the condensate box specification parameters, steam pipe interface parameters and air inlet parameters.

[0012] Preferably, the fluid analysis inside the oven is performed based on the fluid analysis technology, and the air inlet parameters of the target air inlet on the side panel of the oven are designed, including:

[0013] Based on fluid analysis technology, we conducted fluid analysis inside the stove-steam-bake combination oven and designed the target air inlet on the side panel of the oven.

[0014] After the design is completed, obtain the air inlet parameters of the target air inlet.

[0015] Preferably, a fluid analysis is performed inside the stove-steam-bake combination machine based on a fluid analysis technology, and a target air inlet on a side panel of the steam oven of the stove-steam-bake combination machine is designed, including:

[0016] Get the internal structure information of the steam oven;

[0017] Analyze internal structure information and obtain internal circuit board information;

[0018] Characterize the internal circuit board information and obtain the internal circuit board features;

[0019] Determine the internal heating center of the steam oven based on the internal circuit board characteristics;

[0020] Obtain the vertical distance between the internal heating center and each side of the steam oven, and use the smallest vertical distance as the target distance;

[0021] Use the side of the steam oven corresponding to the target distance as the side panel of the steam oven;

[0022] Determine the target air inlet based on the vertical projection of the internal heating center point on the side panel of the steam oven and the preset air inlet design template.

[0023] Preferably, the condensate box fluid design is performed based on the condensate box specification parameters, steam pipe interface parameters and air inlet parameters, including:

[0024] Analyze the specifications of the condensate box and determine the air inlet position and air inlet position sequence number of the condensate box;

[0025] Determine the intake pipe parameters based on the intake port parameters and internal structure information;

[0026] Designing the exhaust pipe based on a preset exhaust pipe design template, according to the intake pipe parameters and the intake position parameters of the intake position with the first target intake position sequence number, and determining a first connection relationship between the exhaust pipe and the intake position;

[0027] Designing the steam pipe based on a preset steam pipe design template, according to the steam pipe interface parameters and the intake position parameters of the intake position of the second target intake position sequence number, and determining a second connection relationship between the exhaust pipe and the intake position;

[0028] When the parameters of the air inlet pipe, the exhaust pipe, the steam pipe, the first connection relationship and the second connection relationship are determined, the fluid design of the condensate box is completed.

[0029] Preferably, the intake pipe parameters are determined based on the intake port parameters and the internal structure information, including:

[0030] Determine the three-dimensional model of the steam oven based on the internal structure information;

[0031] According to the air inlet parameters, determine the virtual air inlet parameters of the steam oven three-dimensional model;

[0032] Based on the steam oven air outlet setting conditions, determine the virtual air outlet parameters of the steam oven three-dimensional model;

[0033] Based on the air intake pipe arrangement rules and the virtual air inlet and outlet parameters, the air intake pipe arrangement is simulated in the three-dimensional model of the steam oven to obtain multiple simulation arrangement results;

[0034] Get the virtual outlet parameters corresponding to the actual set outlet setting difficulty cost;

[0035] According to the simulation arrangement result, the simulated arrangement pipeline information is characterized to obtain a simulated arrangement pipeline feature set;

[0036] Determine the pipeline setting difficulty cost based on the simulated pipeline arrangement feature set and the preset pipeline setting difficulty cost estimation library;

[0037] Accumulate and calculate the outlet setting difficulty cost and pipeline setting difficulty cost corresponding to the simulation arrangement results to obtain the target setting difficulty cost;

[0038] Based on the virtual-to-real conversion template, the simulation arrangement results with the lowest target setting difficulty cost are converted into intake pipe parameters.

[0039] Preferably, the fluid analysis inside the stove-steam-bake combination machine is performed based on the fluid analysis technology, and the target air inlet on the side panel of the steam oven of the stove-steam-bake combination machine is designed, further comprising:

[0040] Obtain a first target three-dimensional model of the stove-steam-bake combination machine;

[0041] Get the gas port setting conditions of the stove-steam-bake combination oven;

[0042] Determining a second target three-dimensional model according to different gas port setting conditions and the first target three-dimensional model;

[0043] Based on the fluid analysis technology, fluid analysis is performed in the second target three-dimensional model to obtain fluid analysis results;

[0044] Obtain the condensate box fluid design target;

[0045] Determine the target gas port setting conditions based on the condensate box fluid design objectives and fluid analysis results;

[0046] According to the target air inlet setting conditions, determine the target air inlet on the side panel of the steam oven of the stove-steam oven.

[0047] Preferably, based on the fluid analysis technology, performing fluid analysis in the second target three-dimensional model to obtain the fluid analysis results includes:

[0048] Get the working parameters of the stove-steam-bake combination machine;

[0049] Obtain a fluid mechanism model based on the working parameters and the second target three-dimensional model;

[0050] Based on fluid analysis technology and fluid mechanism model, fluid analysis results are obtained.

[0051] Preferably, obtaining fluid analysis results based on fluid analysis technology and according to a fluid mechanism model includes:

[0052] Obtain the fluid parameter reading template of the fluid mechanism model;

[0053] Read the fluid parameters in the fluid mechanism model according to the fluid parameter reading template;

[0054] Summarize fluid parameters and obtain fluid analysis results.

[0055] Preferably, obtaining the condensation box fluid design target includes:

[0056] Obtain the condensation effect evaluation record of the condensation box;

[0057] Determine the evaluation objectives and contents based on the condensation effect evaluation records of the condensation box;

[0058] Obtain target specification parameters of the evaluation target;

[0059] Calculate the parameter similarity values between the condensate box specification parameters and the target specification parameters;

[0060] If the parameter similarity value is greater than or equal to the preset parameter similarity value threshold, the evaluation content of the corresponding evaluation target is used as the target analysis content;

[0061] Obtain parsed semantics based on the target parsed content;

[0062] Determining a first evaluation item for evaluating fluid parameters according to analytical semantics;

[0063] Obtain a second evaluation item within a preset evaluation item range of the first evaluation item;

[0064] constructing an ideal value approximation model for evaluating the fluid parameters according to the first evaluation item and the second evaluation item, and obtaining the ideal value of the evaluation fluid parameters;

[0065] The ideal values of all evaluated fluid parameters are summarized to obtain the condensate box fluid design target.

[0066] The beneficial effects of the present invention are:

[0067] The present invention introduces fluid analysis technology to obtain fluid analysis results inside the stove-steam-bake combination machine, determine suitable air inlet parameters of the target air inlet on the side panel of the steam oven, and comprehensively design the fluid flow path inside the condensate box according to the air inlet parameters, steam pipe interface parameters and condensate box specification parameters, so as to discharge the hot gas around the circuit board inside the steam box together, reduce thermal failures and improve the rationality of the internal fluid design of the stove-steam-bake combination machine.

[0068] Other features and advantages of the present invention will be described in the following description, and in part will become apparent from the description, or will be understood by practicing the present invention. The purpose and other advantages of the present invention can be achieved and obtained through the structures specifically pointed out in this application document.

[0069] The technical solution of the present invention is further described in detail below through the accompanying drawings and embodiments. BRIEF DESCRIPTION OF THE DRAWINGS

[0070] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0071] Figure 1 Schematic diagram of a condensation box fluid design method based on fluid analysis in an embodiment of the present invention;

[0072] Figure 2 Schematic diagram of a stove-steam-bake combination machine according to an embodiment of the present invention. DETAILED DESCRIPTION

[0073] The preferred embodiments of the present invention are described below with reference to the accompanying drawings. It should be understood that the preferred embodiments described herein are only used to illustrate and explain the present invention, and are not used to limit the present invention.

[0074] The embodiment of the present invention provides a condensation box fluid design method based on fluid analysis, such as Figure 1 Shown, including:

[0075] Step 1: Based on the fluid analysis technology, the fluid inside the oven is analyzed, and the air inlet parameters of the target air inlet on the side panel of the oven are designed; Figure 2 The internal fluid analysis (shown) is the process of analyzing the gas flow inside the stove-steam-bake combination oven. The air inlet parameters are the parameters of the inlet (target air inlet) for the gas flowing into the stove-steam-bake combination oven, including: position, shape, and size. For example, the grid opening of a preset shape and size on the back of the steam oven side panel to which the stove-steam-bake combination oven control circuit board is attached.

[0076] Step 2: Obtain the steam pipe interface parameters of the steam oven. The steam pipe interface parameters are the technical parameters of the steam pipe, including size (diameter, length), shape, material, connection method (such as thread, flange connection, etc.), operating pressure, operating temperature, and location.

[0077] Step 3: Obtain the specification parameters of the condensation box; wherein the specification parameters of the condensation box include: the position and size of the condensation box;

[0078] Step 4: Design the condensate box flow path based on the condensate box specifications, steam pipe interface parameters, and air inlet parameters. This involves designing the flow path and structure inside the condensate box to ensure efficient collection and discharge of condensate.

[0079] The working principle and beneficial effects of the above technical solution are:

[0080] The present invention introduces fluid analysis technology to obtain fluid analysis results inside the stove-steam-bake combination machine, determine suitable air inlet parameters of the target air inlet on the side panel of the steam oven, and comprehensively design the fluid flow path inside the condensate box according to the air inlet parameters, steam pipe interface parameters and condensate box specification parameters, so as to discharge the hot gas around the circuit board inside the steam box together, reduce thermal failures and improve the rationality of the internal fluid design of the stove-steam-bake combination machine.

[0081] In one embodiment, a fluid analysis is performed inside the oven based on fluid analysis technology to design air inlet parameters for a target air inlet on a side panel of the oven, including:

[0082] Based on fluid analysis technology, we conducted fluid analysis inside the stove-steam-bake combination oven and designed the target air inlet on the side panel of the oven.

[0083] After the design is completed, obtain the air inlet parameters of the target air inlet.

[0084] The working principle and beneficial effects of the above technical solution are:

[0085] The present invention introduces fluid analysis technology to perform fluid analysis inside the stove-steam-bake combination machine, designs a target air inlet on the side panel of the steam oven of the stove-steam-bake combination machine, reads the air inlet parameters after the design is completed, and improves the accuracy of obtaining the air inlet parameters.

[0086] In one embodiment, a fluid analysis is performed inside a stove-steam-bake combination appliance based on fluid analysis technology to design a target air inlet on a side panel of the steam oven of the stove-steam-bake combination appliance, including:

[0087] Obtaining internal structural information of the steam oven; wherein the internal structural information includes information about the components and structures inside the steam oven, such as layout, size, and material;

[0088] Parse the internal structure information to obtain the internal circuit board information; wherein the internal circuit board information is: related information of the internal circuit board of the steam oven, including: electronic components, wiring, interfaces and control chips on the circuit board;

[0089] Characterize the internal circuit board information to obtain internal circuit board features; wherein the internal circuit board features include: electronic component types, wiring structure, interface type, and control chip model;

[0090] Determine the internal heating center point of the steam oven according to the internal circuit board characteristics; wherein the internal heating center point is: the spatial position of the steam oven with the maximum internal heating value determined according to the internal circuit board characteristics;

[0091] Obtain the vertical distance between the internal heating center and each side of the steam oven, and use the smallest vertical distance as the target distance;

[0092] Use the side of the steam oven corresponding to the target distance as the side panel of the steam oven;

[0093] The target air inlet is determined based on the vertical projection of the internal heat center on the steam oven side panel and the preset air inlet design template. The air inlet design template describes how to design the air inlet based on the vertical projection. For example, within a circular area with a radius of 3 cm and a vertical projection point as the center, 50 small holes with a diameter of 1 mm are evenly distributed within the circular area.

[0094] The working principle and beneficial effects of the above technical solution are:

[0095] As a high-power kitchen appliance, steam ovens frequently experience thermal failures. Circuit boards, which are prone to heat during operation and serve as the control center, are analyzed to obtain internal structural information, which is then characterized to obtain internal circuit board features. Based on these features, the internal heating center (the spatial location within the steam oven with the highest heat generation) is determined. The vertical distance from the internal heating center to each side of the steam oven is calculated to determine the minimum target distance. The side of the steam oven corresponding to the target distance serves as the steam oven side panel. An air inlet design template is introduced, and the target air inlet is determined based on the vertical projection of the internal heating center on the steam oven side panel, improving the rationality of the target air inlet location.

[0096] In one embodiment, the condensate box fluid design is performed based on the condensate box specification parameters, steam pipe interface parameters, and air inlet parameters, including:

[0097] Analyze the specifications of the condensate box and determine the air inlet position and air inlet position sequence of the condensate box; the air inlet position sequence includes: 1, 2 and 3, and the position sequence is manually preset;

[0098] Determine the air intake pipe parameters based on the air intake port parameters and internal structure information; the air intake pipe parameters include: the layout information of the air intake pipe in the steaming and baking stove;

[0099] Based on a preset exhaust pipe design template, the exhaust pipe is designed according to the intake pipe parameters and the intake position parameters of the first target intake position sequence number, and a first connection relationship between the exhaust pipe and the intake position is determined; wherein, one branch at one end of the exhaust pipe is connected to a side of the intake pipe that is not close to the target intake port, and two branches at one end are connected to the intake positions of the target intake positions sequence numbers 1 and 3, respectively;

[0100] Based on the preset steam pipe design template, the steam pipe interface parameters and the intake position parameters of the intake position with the second target intake position sequence number are used to design the steam pipe, and a second connection relationship between the exhaust pipe and the intake position is determined; wherein one side of the steam pipe is connected to the steam pipe interface, and one side is connected to the intake position with the target intake position sequence number 2;

[0101] When the parameters of the air inlet pipe, the exhaust pipe, the steam pipe, the first connection relationship and the second connection relationship are determined, the fluid design of the condensate box is completed.

[0102] The working principle and beneficial effects of the above technical solution are:

[0103] The present invention determines the air intake pipe parameters according to the air intake port parameters and the internal structure information of the steam oven; introduces the exhaust pipe design template, and designs the exhaust pipe according to the air intake pipe parameters and the air intake positions with air intake position numbers 1 and 3; introduces the steam pipe design template, and designs the steam pipe according to the steam pipe interface parameters and the air intake position with air intake position number 2. After the air intake pipe parameters, the exhaust pipe, the steam pipe, the first connection relationship and the second connection relationship are all determined, the condensation box fluid design is completed, air is taken in from the steam oven side and is diverted at the air inlet of the condensation box, which improves the uniformity of air intake, the water vapor can be gathered to the maximum extent, and the condensation effect is better.

[0104] In one embodiment, determining intake pipe parameters based on intake port parameters and internal structure information includes:

[0105] Determine a three-dimensional model of the steam oven based on the internal structure information; wherein the three-dimensional model of the steam oven is: a three-dimensional model of the steam oven determined in proportion based on the internal structure information;

[0106] Determining virtual air inlet parameters of the three-dimensional model of the steam oven according to the air inlet parameters; wherein the virtual air inlet parameters are: virtual setting parameters of the air inlet of the three-dimensional model of the steam oven corresponding to the air inlet parameters;

[0107] Based on the steam oven air outlet setting conditions, the virtual air outlet parameters of the steam oven 3D model are determined. The steam oven air outlet setting conditions are the conditions that constrain the steam box air outlet setting. For example, if a control panel is placed on the steam oven side panel, the area of the steam oven side panel corresponding to the control panel does not meet the steam oven air outlet setting conditions. The virtual air outlet parameters include the simulated area on the steam oven side panel available for steam oven air outlet development and the development rules (for example, air outlet shape and area).

[0108] Based on the intake duct layout rules and virtual inlet and outlet parameters, the intake duct layout was simulated in the three-dimensional steam oven model to obtain multiple simulation layout results. The intake duct layout rules include constraints on the intake duct layout, such as setting the intake duct 5 cm outside the heat-generating component and 2 cm outside the non-heating component.

[0109] Obtaining a cost of difficulty in setting an actual air outlet corresponding to the virtual air outlet parameters; wherein the cost of difficulty in setting an air outlet is a quantified value of difficulty in setting the actual air outlet corresponding to the virtual air outlet parameters, which is manually input based on experience according to the obtained virtual air outlet parameters;

[0110] According to the simulation arrangement results, the simulated arrangement pipeline information is characterized to obtain a simulated arrangement pipeline feature set; wherein the simulated arrangement pipeline feature set is a data set composed of multiple simulated arrangement pipeline features, and the simulated arrangement pipeline features include: distribution position, diameter, etc. of the simulated pipeline;

[0111] Determining the pipeline setting difficulty cost based on the simulated pipeline arrangement feature set and a preset pipeline setting difficulty cost estimation library; wherein the preset pipeline setting difficulty cost estimation library includes a plurality of preset simulated pipeline arrangement features and pipeline setting difficulty cost estimations;

[0112] Accumulate and calculate the outlet setting difficulty cost and pipeline setting difficulty cost corresponding to the simulation arrangement results to obtain the target setting difficulty cost;

[0113] The simulated layout results with the lowest target setting difficulty and cost are converted into intake duct parameters based on a virtual-to-real conversion template. This template is used to extract the actual stove-steam-bake combination setting parameters from the 3D simulation parameters.

[0114] The working principle and beneficial effects of the above technical solution are:

[0115] The present invention constructs a three-dimensional model of a steam oven based on internal structural information, determines the air inlet parameters corresponding to the virtual air inlet parameters of the three-dimensional model of the steam oven, and simultaneously determines the virtual air outlet parameters according to the steam oven outlet setting conditions. The present invention introduces air pipe arrangement rules, and based on three-dimensional simulation technology, simulates the air inlet pipe arrangement in the three-dimensional model of the steam oven according to the virtual air inlet parameters and virtual air outlet parameters, and obtains multiple simulated arrangement results. The virtual air outlet parameters are displayed to a human based on the model, and the outlet setting difficulty cost fed back by the human is determined. The simulated arrangement pipeline information corresponding to the simulated arrangement result is characterized to obtain a simulated arrangement pipeline feature set, and a pipeline setting difficulty cost estimation library is introduced to determine the pipeline setting difficulty cost. The outlet setting difficulty cost and pipeline setting difficulty cost corresponding to the simulated arrangement result are cumulatively calculated to obtain a target setting difficulty cost. The simulated arrangement result with the minimum target setting difficulty cost is converted based on a virtual-to-real conversion template to obtain the air inlet pipe parameters, thereby improving the rationality of the exhaust pipe design in the steam oven.

[0116] In one embodiment, a fluid analysis is performed inside the stove-steam-bake combination appliance based on a fluid analysis technology to design a target air inlet on a side panel of the steam oven of the stove-steam-bake combination appliance, further comprising:

[0117] Obtain a first target three-dimensional model of the stove-steam-bake combination machine; wherein the first target three-dimensional model is a three-dimensional model of the stove-steam-bake combination machine at a 1:1 scale;

[0118] Obtaining the gas port setting conditions of the stove-steam-bake combination oven; wherein the gas port setting conditions include the exhaust port setting conditions and the outlet port setting conditions;

[0119] Determine a second target three-dimensional model based on different air port setting conditions and the first target three-dimensional model; the second target three-dimensional model is a three-dimensional model obtained by setting the first target three-dimensional model based on the different air port setting conditions, wherein the air inlet and the air outlet in the set air port correspond one to one;

[0120] Based on fluid analysis technology, fluid analysis is performed in the second target 3D model to obtain fluid analysis results; the fluid analysis results include: fluid parameters (fluid density, viscosity, velocity, etc.) in different areas

[0121] Obtaining a condensation box fluid design target; wherein the condensation box fluid design target is: a parameter that the fluid in the condensation box needs to achieve;

[0122] Determining target air port setting conditions based on the condensate box fluid design objectives and fluid analysis results; wherein the fluid parameters in the condensate box analyzed in the fluid analysis results are compared with the condensate box fluid design objectives, and the air port setting conditions in the second target three-dimensional model corresponding to the fluid analysis results that best meet the condensate box fluid design objectives are used as the target air port setting conditions;

[0123] According to the target air inlet setting conditions, determine the target air inlet on the side panel of the steam oven of the stove-steam oven.

[0124] The working principle and beneficial effects of the above technical solution are:

[0125] The location of different target air inlets on the side panels of the oven significantly affects the fluid conditions within the condensate box. A first target three-dimensional model and air inlet setting conditions for the oven are obtained. Based on the different air inlet setting conditions and the first target three-dimensional model, a second target three-dimensional model corresponding to the different air inlet setting conditions is determined. Fluid analysis technology is introduced to perform fluid analysis in the second target three-dimensional model to obtain the fluid analysis results. Furthermore, the fluid design target for the condensate box is obtained and compared with the fluid design target. The air inlet setting conditions in the second target three-dimensional model corresponding to the fluid analysis results that best meet the condensate box fluid design target are used as the target air inlet setting conditions. The target air inlet on the side panels of the oven are designed based on the target air inlet setting conditions, further improving the rationality of the target air inlet setting.

[0126] In one embodiment, based on the fluid analysis technology, performing fluid analysis in the second target three-dimensional model and obtaining fluid analysis results include:

[0127] Obtaining operating parameters of the stove-steam-bake combination machine; wherein the operating parameters are various parameters of the stove-steam-bake combination machine during operation, including temperature, pressure, power, time, and temperature;

[0128] Obtaining a fluid mechanism model based on the operating parameters and the second target three-dimensional model; wherein the fluid mechanism model is a data model that describes and predicts the behavior of the fluid under the operating parameters;

[0129] Based on fluid analysis technology and fluid mechanism model, fluid analysis results are obtained.

[0130] The working principle and beneficial effects of the above technical solution are:

[0131] The present invention introduces the working parameters of the stove-steam-bake combination machine, obtains a fluid mechanism model (a mathematical model that describes and predicts the fluid flow conditions under the working parameters of the stove-steam-bake combination machine) according to the working parameters and the second target three-dimensional model, and obtains the fluid analysis results of the fluid mechanism model, eliminating the need for manual analysis and improving the accuracy of fluid analysis.

[0132] In one embodiment, obtaining fluid analysis results based on fluid analysis technology and a fluid mechanism model includes:

[0133] Obtain a fluid parameter reading template of the fluid mechanism model; wherein the fluid parameter reading template is a template for extracting fluid parameters from the fluid mechanism model, such as a query rule for fluid velocity;

[0134] Read the fluid parameters in the fluid mechanism model according to the fluid parameter reading template;

[0135] Obtain fluid analysis results based on fluid parameters.

[0136] The working principle and beneficial effects of the above technical solution are:

[0137] The present invention introduces a fluid parameter reading template for the fluid mechanism model to read the fluid parameters, summarizes the fluid parameters to obtain fluid analysis results, and improves the rationality of the fluid analysis.

[0138] In one embodiment, obtaining a condensation box fluid design target includes:

[0139] Obtaining a condensation effect evaluation record of the condensation box; wherein the condensation effect evaluation record of the condensation box is: a record of the technician's evaluation process of the simulated condensation effect of the condensation box during the process of simulating steam condensation;

[0140] Determine the evaluation target and evaluation content based on the condensation box condensation effect evaluation record; wherein the evaluation target is: the condensation box evaluated in the condensation box condensation effect evaluation record;

[0141] Obtain target specification parameters of the evaluation target; wherein the target specification parameters are: specification parameter information of the condensation box to be evaluated;

[0142] Calculate the parameter similarity values between the condensate box specification parameters and the target specification parameters;

[0143] If the parameter similarity value is greater than or equal to a preset parameter similarity value threshold, the evaluation content of the corresponding evaluation target is used as the target analysis content; wherein the parameter similarity value threshold is manually preset;

[0144] Obtaining parsed semantics based on target parsed content; wherein the parsed semantics are obtained based on semantic analysis technology;

[0145] Determine a first evaluation item for evaluating the fluid parameter according to the parsed semantics; wherein the first evaluation item is: an evaluation semantic item describing the fluid parameter;

[0146] Obtaining a second evaluation item within a preset evaluation item range of the first evaluation item; wherein the preset evaluation item range is, for example, 5 evaluation semantic items forward and 10 evaluation semantic items backward;

[0147] Based on the first evaluation item and the second evaluation item, an ideal value approximation model for the evaluation fluid parameter is constructed, and the ideal value of the evaluation fluid parameter is obtained; wherein the ideal value approximation model for the evaluation fluid parameter is an AI model that numerically approximates the ideal evaluation fluid parameter value based on the relationship between the large and small evaluation fluid parameter values described by the first evaluation item and the second evaluation item;

[0148] The ideal values of all evaluated fluid parameters are summarized to obtain the condensate box fluid design target.

[0149] The working principle and beneficial effects of the above technical solution are:

[0150] When determining the design target of the condensate box fluid, it is necessary to determine which fluid parameters are the parameters of the condensate box under the ideal state, introduce the condensate box condensation effect evaluation record, determine the evaluation target and evaluation content, determine the target specification parameters of the condensate box evaluated in the record, calculate the parameter similarity (parameter similarity value) between the condensate box specification parameters and the target specification parameters, screen out the target parsing content of the evaluation target with a parameter similarity value greater than or equal to the parameter similarity value threshold, and parse the target parsing content to obtain the parsing semantics; based on the semantic matching technology, obtain the first evaluation item for evaluating the fluid parameter, and obtain the second evaluation item within the evaluation item range set by the first evaluation item; the first evaluation item and the second evaluation item correspond to each other, and the relationship between the large and small values of the evaluated fluid parameter can be determined based on the first evaluation item and the second evaluation item; the ideal value approximation model of the evaluated fluid parameter approximates the evaluated fluid parameter value to obtain the approximated ideal value of the fluid parameter, and summarizes the ideal values of the fluid parameters of all fluid parameter types to obtain the condensate box fluid design target. The acquisition of the condensate box fluid design target is more reasonable and more suitable for guiding subsequent fluid design.

[0151] Obviously, those skilled in the art may make various changes and modifications to the present invention without departing from the spirit and scope of the present invention. Thus, if such changes and modifications fall within the scope of the claims and their equivalents, the present invention is intended to include such changes and modifications.

Claims

1. A condensation box fluid design method based on fluid analysis, characterized in that: include: Based on fluid analysis technology, the flow inside the oven was analyzed to design the air inlet parameters of the target air inlet on the side panel of the oven. Get the steam pipe interface parameters of the steam oven; Get the specifications of the condensate box; Design the condensate box fluid according to the condensate box specifications, steam pipe interface parameters and air inlet parameters; Among them, based on the fluid analysis technology, the fluid analysis inside the stove steam oven is carried out, and the air inlet parameters of the target air inlet on the side panel of the steam oven are designed, including: Based on fluid analysis technology, we conducted fluid analysis inside the stove-steam-bake combination oven and designed the target air inlet on the side panel of the oven. After the design is completed, the air inlet parameters of the target air inlet are obtained; Among them, the fluid analysis inside the stove-steam-bake combination machine was conducted based on fluid analysis technology, and the target air inlet on the side panel of the steam oven of the stove-steam-bake combination machine was designed, including: Get the internal structure information of the steam oven; Analyze internal structure information and obtain internal circuit board information; Characterize the internal circuit board information and obtain the internal circuit board features; Determine the internal heating center of the steam oven based on the internal circuit board characteristics; Obtain the vertical distance between the internal heating center and each side of the steam oven, and use the smallest vertical distance as the target distance; Use the side of the steam oven corresponding to the target distance as the side panel of the steam oven; Determine the target air inlet based on the vertical projection of the internal heating center point on the side panel of the steam oven and the preset air inlet design template; Among them, the condensate box fluid design is carried out according to the condensate box specifications, steam pipe interface parameters and air inlet parameters, including: Analyze the specifications of the condensate box and determine the air inlet position and air inlet position sequence number of the condensate box; Determine the intake pipe parameters based on the intake port parameters and internal structure information; Designing the exhaust pipe based on a preset exhaust pipe design template, according to the intake pipe parameters and the intake position parameters of the intake position with the first target intake position sequence number, and determining a first connection relationship between the exhaust pipe and the intake position; Designing the steam pipe based on a preset steam pipe design template, according to the steam pipe interface parameters and the intake position parameters of the intake position of the second target intake position sequence number, and determining a second connection relationship between the exhaust pipe and the intake position; When the parameters of the air inlet pipe, the exhaust pipe, the steam pipe, the first connection relationship and the second connection relationship are determined, the fluid design of the condensate box is completed.

2. The condensation box fluid design method based on fluid analysis according to claim 1, characterized in that: According to the air inlet parameters and internal structure information, determine the air inlet pipe parameters, including: Determine the three-dimensional model of the steam oven based on the internal structure information; According to the air inlet parameters, determine the virtual air inlet parameters of the steam oven three-dimensional model; Based on the steam oven air outlet setting conditions, determine the virtual air outlet parameters of the steam oven three-dimensional model; Based on the air intake pipe arrangement rules and the virtual air inlet and outlet parameters, the air intake pipe arrangement is simulated in the three-dimensional model of the steam oven to obtain multiple simulation arrangement results; Get the virtual outlet parameters corresponding to the actual set outlet setting difficulty cost; According to the simulation arrangement result, the simulated arrangement pipeline information is characterized to obtain a simulated arrangement pipeline feature set; Determine the pipeline setting difficulty cost based on the simulated pipeline arrangement feature set and the preset pipeline setting difficulty cost estimation library; Accumulate and calculate the outlet setting difficulty cost and pipeline setting difficulty cost corresponding to the simulation arrangement results to obtain the target setting difficulty cost; Based on the virtual-to-real conversion template, the simulation arrangement results with the lowest target setting difficulty cost are converted into intake pipe parameters.

3. The method for designing a condensation box fluid based on fluid analysis according to claim 1, characterized in that: Based on fluid analysis technology, the flow inside the stove-steam-bake combination machine is analyzed, and the target air inlet on the side panel of the steam oven of the stove-steam-bake combination machine is designed. The following also includes: Obtain a first target three-dimensional model of the stove-steam-bake combination machine; Get the gas port setting conditions of the stove-steam-bake combination oven; Determining a second target three-dimensional model according to different gas port setting conditions and the first target three-dimensional model; Based on the fluid analysis technology, fluid analysis is performed in the second target three-dimensional model to obtain fluid analysis results; Obtain the condensate box fluid design target; Determine the target gas port setting conditions based on the condensate box fluid design objectives and fluid analysis results; According to the target air inlet setting conditions, determine the target air inlet on the side panel of the steam oven of the stove-steam oven.

4. The method for designing a condensation box fluid based on fluid analysis according to claim 3, characterized in that: Based on fluid analysis technology, fluid analysis is performed in the second target 3D model to obtain fluid analysis results, including: Get the working parameters of the stove-steam-bake combination machine; Obtain a fluid mechanism model based on the working parameters and the second target three-dimensional model; Based on fluid analysis technology and fluid mechanism model, fluid analysis results are obtained.

5. The method for designing a condensation box fluid based on fluid analysis according to claim 4, characterized in that: Based on fluid analysis technology and fluid mechanism models, fluid analysis results are obtained, including: Obtain the fluid parameter reading template of the fluid mechanism model; Read the fluid parameters in the fluid mechanism model according to the fluid parameter reading template; Summarize fluid parameters and obtain fluid analysis results.

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