Virtual printer design method and device and storage medium

Abstract

The invention discloses a virtual printer design method and device and a storage medium, relates to the technical field of printer simulation, and realizes comprehensive simulation of a printing process by constructing a multi-physics field parameterization model and integrating environment influence parameters, hardware characteristic parameters and error simulation parameters. A virtual printing subsystem interface and interaction logic are defined based on the model, and a virtual printing head, a guide rail, a paper feeding system and a printing medium are covered; the virtual printing engine analyzes the printing task, generates a cooperative control instruction in combination with hardware characteristics, and generates a virtual printing result through error simulation parameters and a correlation function correction instruction; the interaction interface outputs a printing result and system state data to support software development and testing; in addition, the invention further provides virtual printer design equipment and a computer readable storage medium, and efficient execution of the method is achieved.

Description

Technical Field

[0001] This invention relates to the field of printer simulation technology, and more specifically, to a virtual printer design method, device, and storage medium. Background Technology

[0002] In the research and development of modern printing equipment, the collaborative development of software and hardware is crucial. However, traditional development models face many challenges. On the one hand, software development usually relies on actual hardware for debugging, but hardware research and development and manufacturing often lag behind software development, making it impossible for software engineers to conduct effective testing and optimization before the hardware is ready. On the other hand, even if the hardware is completed, the actual testing environment is difficult to fully simulate various complex usage scenarios, such as extreme environmental conditions (high temperature, high humidity, high dust concentration) and hardware failures (nozzle blockage, guide rail movement error, paper jams, etc.). These problems not only prolong the development cycle and increase development costs, but may also lead to compatibility and stability issues in actual use of the software.

[0003] Furthermore, most existing printing equipment testing methods are based on actual hardware and lack comprehensive consideration of complex environmental factors and hardware characteristic parameters. For example, environmental factors such as temperature, humidity and dust concentration affect ink viscosity, media ink absorption and nozzle clogging probability, as well as the physical constraints of the printhead, guide rail and paper feeding system affect printing accuracy and efficiency. These factors are often ignored in traditional testing. Therefore, it is particularly important to develop a virtual printer design method that can provide a comprehensive and controllable virtual testing environment during the software development stage.

[0004] Therefore, existing software development relies on actual hardware testing and lacks comprehensive simulation of complex environmental factors and hardware characteristic parameters, resulting in low development efficiency, long cycle, high cost, and difficulty in comprehensively testing software compatibility and stability. Summary of the Invention

[0005] To overcome the problems of low development efficiency, long development cycle, high cost, and difficulty in comprehensively testing software compatibility and stability caused by the reliance on actual hardware testing in existing technologies, which lack comprehensive simulation of complex environmental factors and hardware characteristic parameters, this invention discloses a virtual printer design method, device, and storage medium that can effectively solve the above-mentioned technical problems.

[0006] To solve the above-mentioned technical problems, the technical solution of the present invention is as follows:

[0007] A virtual printer design method, comprising:

[0008] A multiphysics parameterized model is constructed, which includes environmental impact parameters, hardware characteristic parameters, and error simulation parameters. The environmental impact parameters characterize the mapping relationship between environmental factors and printing effect through correlation functions. The hardware characteristic parameters include physical constraint parameters of the print head, guide rail, and paper feeding system. The error simulation parameters are used to introduce physical disturbances.

[0009] The virtual printing subsystem interface and interaction logic are defined based on the multiphysics parameterization model. The virtual printing subsystem includes a virtual printhead, a virtual guide rail, a virtual paper feeding system, and a virtual printing medium.

[0010] The virtual printing engine analyzes the printing task and combines it with hardware characteristic parameters to generate collaborative control instructions for motion trajectory planning, inkjet timing and paper feed synchronization.

[0011] The physical disturbance value is calculated based on the error simulation parameters and correlation functions, and the cooperative control command is corrected to generate virtual printing results;

[0012] It provides an interactive interface to output virtual printing results and system status data.

[0013] Preferably, the correlation function of the environmental impact parameter includes:

[0014] The temperature-viscosity function characterizes the effect of temperature on ink viscosity, and its functional form is as follows:

[0015] in, The viscosity of the ink at standard temperature. Temperature-related factor;

[0016] The humidity-ink absorption function characterizes the effect of humidity on the ink absorption properties of a medium. The function has the following form:

[0017] in, Ink absorption at standard humidity. Humidity-related factor;

[0018] The dust concentration-clogging probability function is used to characterize the impact of dust on nozzle clogging, and the function has the following form:

[0019] in, This represents the probability of clogging in a cleanroom environment. This is a dust correlation factor.

[0020] Preferably, the hardware characteristic parameters include: the nozzle diameter, number of nozzles, and arrangement of the printhead, wherein the nozzle diameter is determined by... Correlate to droplet size, where d is the nozzle diameter. , These are the experimental fitting constants;

[0021] The maximum speed, acceleration, and length of the guide rail, and the guide rail movement time are determined by... Where L is the length of the guide rail. For maximum speed, This is the maximum acceleration;

[0022] The paper feeding system's paper feed speed, paper thickness, and size, and the distance between the print head and the paper are determined by... Calculation, where For paper thickness, is the experimental fitting constant.

[0023] Preferably, the error simulation parameters introduce physical disturbances in the following ways:

[0024] The ink droplet landing point is corrected based on the printhead vibration coefficient superimposed with random disturbance, and the disturbance amplitude is positively correlated with the vibration coefficient;

[0025] A periodic fluctuation component is introduced based on the guide rail speed fluctuation coefficient, wherein the fluctuation frequency and amplitude are set by the speed fluctuation coefficient;

[0026] By incorporating systematic errors into the paper feed step error coefficient, the impact of the pass channel phenomenon on image stitching is simulated.

[0027] Preferably, the virtual printing engine parses the printing task including:

[0028] The print job is converted into a pixel matrix, and scan line inkjet instructions are generated by combining the print resolution.

[0029] Based on the guide rail motion constraints and paper feed stepping accuracy, the printhead motion trajectory is planned using a time-optimal algorithm.

[0030] An event-driven synchronization mechanism is adopted to achieve time-series coordination of printhead ink jetting, guide rail movement, and paper feeding.

[0031] Preferably, the parameters of the correlation function are determined in the following manner:

[0032] Collect laboratory test data under different environmental conditions, including temperature-viscosity data, humidity-ink absorption data, and dust concentration-clogging probability data;

[0033] The least squares method was used to fit the measured data to determine the coefficients in the correlation function.

[0034] The threshold is dynamically adjusted based on the fitting results, and the output value of the correlation function is automatically updated when the environmental parameters exceed the threshold.

[0035] Preferably, the ink application simulation of the virtual printing medium includes:

[0036] Based on medium absorbance parameters and diffusion equations Calculate the ink diffusion range, where C is the ink concentration and D is the diffusion coefficient;

[0037] Pixel values ​​are corrected by combining media color characteristic parameters, and attribute configuration is supported for the same media type.

[0038] Preferably, the system status data output by the interactive interface includes:

[0039] The virtual printhead's nozzle status, guide rail movement error, and paper feed accuracy data;

[0040] Predicted values ​​of ink viscosity, media ink absorption and clogging probability based on real-time calculation of environmental impact parameters;

[0041] The timing log and abnormal status alarm information of the virtual printing process.

[0042] Preferably, a virtual printer design device includes: a memory for storing a computer program; and a processor for executing the computer program to implement the steps of the virtual printer design method described above.

[0043] Preferably, a computer-readable storage medium stores a computer program that, when executed by a processor, implements the steps of the virtual printer design method as described above.

[0044] Compared with existing technologies, the beneficial effects of this invention are as follows: This invention solves the problems of existing technologies, such as software development relying on actual hardware testing and lacking comprehensive simulation of complex environmental factors and hardware characteristic parameters, by constructing a multiphysics parameterized model that includes environmental impact parameters, hardware characteristic parameters, and error simulation parameters. Specifically, in the early stages of printer design and debugging, software developers are unable to conduct direct testing due to the lack of actual hardware conditions, resulting in significantly prolonged software development processes, low efficiency, long development cycles, high costs, and difficulty in comprehensively testing software compatibility and stability. This invention, by constructing a multiphysics parameterized model, can simulate various key functions and behaviors of a real printer, providing software developers with a controllable and simulated testing environment. The environmental impact parameters, through correlation functions, characterize the mapping relationship between environmental factors and printing effects, simulating the impact of environmental factors such as temperature, humidity, and dust concentration on printing effects. The hardware characteristic parameters include the physical constraint parameters of the print head, guide rails, and paper feeding system, simulating the physical characteristics of real hardware. The error simulation parameters are used for... By introducing physical disturbances, various errors and anomalies that may occur during actual printing can be simulated. Through the comprehensive simulation of these parameters, software developers can independently develop and debug in a virtual environment without waiting for physical hardware, thereby improving software development efficiency, shortening the overall development cycle, and reducing development costs. In addition, this invention analyzes the printing task through a virtual printing engine, combines hardware characteristic parameters to generate collaborative control instructions for motion trajectory planning, inkjet timing, and paper feed synchronization, and calculates physical disturbance values ​​based on error simulation parameters and correlation functions to correct the collaborative control instructions to generate virtual printing results. This process can more comprehensively simulate various situations in the real printing process, improving software quality and stability. At the same time, this invention also provides an interactive interface to output virtual printing results and system status data, including the nozzle status of the virtual printhead, guide rail motion error and paper feed accuracy data, ink viscosity, media ink absorption and clogging probability prediction values ​​calculated in real time based on environmental influence parameters, as well as timing logs and abnormal status alarm information of the virtual printing process, further improving the convenience and efficiency of software development. Attached Figure Description

[0045] To more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are merely exemplary. For those skilled in the art, other embodiments can be derived from the provided drawings without creative effort.

[0046] Figure 1 This is a diagram illustrating the steps of the method of the present invention; Detailed Implementation

[0047] The accompanying drawings are for illustrative purposes only and should not be construed as limiting the scope of this patent.

[0048] To better illustrate this embodiment, some parts in the accompanying drawings may be omitted, enlarged, or reduced, and do not represent the actual product dimensions;

[0049] It will be understood by those skilled in the art that certain well-known structures and their descriptions may be omitted in the accompanying drawings.

[0050] The technical solution of the present invention will be further described below with reference to the accompanying drawings and embodiments.

[0051] Example

[0052] Please see Figure 1 A virtual printer design method, comprising:

[0053] A multiphysics parameterized model is constructed, which includes environmental impact parameters, hardware characteristic parameters, and error simulation parameters. The environmental impact parameters characterize the mapping relationship between environmental factors and printing effect through correlation functions. The hardware characteristic parameters include physical constraint parameters of the print head, guide rail, and paper feeding system. The error simulation parameters are used to introduce physical disturbances.

[0054] The virtual printing subsystem interface and interaction logic are defined based on the multiphysics parameterization model. The virtual printing subsystem includes a virtual printhead, a virtual guide rail, a virtual paper feeding system, and a virtual printing medium.

[0055] The virtual printing engine analyzes the printing task and combines it with hardware characteristic parameters to generate collaborative control instructions for motion trajectory planning, inkjet timing and paper feed synchronization.

[0056] The physical disturbance value is calculated based on the error simulation parameters and correlation functions, and the cooperative control command is corrected to generate virtual printing results;

[0057] It provides an interactive interface to output virtual printing results and system status data.

[0058] The correlation functions for the environmental impact parameters include:

[0059] The temperature-viscosity function characterizes the effect of temperature on ink viscosity, and its functional form is as follows:

[0060] in, The viscosity of the ink at standard temperature. Temperature-related factor;

[0061] The humidity-ink absorption function characterizes the effect of humidity on the ink absorption properties of a medium. The function has the following form:

[0062] in, Ink absorption at standard humidity. Humidity-related factor;

[0063] The dust concentration-clogging probability function is used to characterize the impact of dust on nozzle clogging, and the function has the following form:

[0064] in, This represents the probability of clogging in a cleanroom environment. This is a dust correlation factor.

[0065] The hardware characteristic parameters include: the nozzle diameter, number of nozzles, and arrangement of the printhead. The nozzle diameter is determined by... Correlate to droplet size, where d is the nozzle diameter. , These are the experimental fitting constants;

[0066] The maximum speed, acceleration, and length of the guide rail, and the guide rail movement time are determined by... Where L is the length of the guide rail. For maximum speed, This is the maximum acceleration;

[0067] The paper feeding system's paper feed speed, paper thickness, and size, and the distance between the print head and the paper are determined by... Calculation, where For paper thickness, is the experimental fitting constant.

[0068] The methods for introducing physical disturbances into the error simulation parameters include:

[0069] The ink droplet landing point is corrected based on the printhead vibration coefficient superimposed with random disturbance, and the disturbance amplitude is positively correlated with the vibration coefficient;

[0070] A periodic fluctuation component is introduced based on the guide rail speed fluctuation coefficient, wherein the fluctuation frequency and amplitude are set by the speed fluctuation coefficient;

[0071] By incorporating systematic errors into the paper feed step error coefficient, the impact of the pass channel phenomenon on image stitching is simulated.

[0072] The virtual printing engine parses printing tasks including:

[0073] The print job is converted into a pixel matrix, and scan line inkjet instructions are generated by combining the print resolution.

[0074] Based on the guide rail motion constraints and paper feed stepping accuracy, the printhead motion trajectory is planned using a time-optimal algorithm.

[0075] An event-driven synchronization mechanism is adopted to achieve time-series coordination of printhead ink jetting, guide rail movement, and paper feeding.

[0076] The parameters of the correlation function are determined in the following way:

[0077] Collect laboratory test data under different environmental conditions, including temperature-viscosity data, humidity-ink absorption data, and dust concentration-clogging probability data;

[0078] The least squares method was used to fit the measured data to determine the coefficients in the correlation function.

[0079] The threshold is dynamically adjusted based on the fitting results, and the output value of the correlation function is automatically updated when the environmental parameters exceed the threshold.

[0080] The ink application simulation of the virtual printing medium includes:

[0081] Based on medium absorbance parameters and diffusion equations Calculate the ink diffusion range, where C is the ink concentration and D is the diffusion coefficient;

[0082] Pixel values ​​are corrected by combining media color characteristic parameters, and attribute configuration is supported for the same media type.

[0083] The system status data output by the interactive interface includes:

[0084] The virtual printhead's nozzle status, guide rail movement error, and paper feed accuracy data;

[0085] Predicted values ​​of ink viscosity, media ink absorption and clogging probability based on real-time calculation of environmental impact parameters;

[0086] The timing log and abnormal status alarm information of the virtual printing process.

[0087] A virtual printer design device includes: a memory for storing a computer program; and a processor for executing the computer program to implement the steps of the virtual printer design method as described above.

[0088] A computer-readable storage medium storing a computer program that, when executed by a processor, implements the steps of the virtual printer design method described above.

[0089] Constructing multiphysics parameterized models

[0090] Temperature-viscosity function: used to characterize the effect of temperature on ink viscosity, the function form is:

[0091] The function is in the following form:

[0092] in, The viscosity of the ink at standard temperature. Temperature correlation factor -

[0093] The humidity-ink absorption function characterizes the effect of humidity on the ink absorption properties of a medium. The function has the following form:

[0094] in, Ink absorption at standard humidity. Humidity-related factor;

[0095] The dust concentration-clogging probability function is used to characterize the impact of dust on nozzle clogging, and the function has the following form:

[0096] in, This represents the probability of clogging in a cleanroom environment. This is a dust correlation factor.

[0097] Printhead: Nozzle diameter, number of nozzles, and arrangement; nozzle diameter is determined by... Correlate to droplet size, where d is the nozzle diameter. , is the experimental fitting constant.

[0098] Guide rail: maximum speed, acceleration, and length; guide rail movement time via... Calculate, where L is the length of the guide rail. For maximum speed, This is the maximum acceleration.

[0099] Paper feeding system: paper feed speed, paper thickness and size, distance between printhead and paper (via...) Calculation, where For paper thickness, The experimental fitting constants

[0100] The printhead corrects the ink droplet landing point based on the printhead vibration coefficient superimposed with random disturbances, and the disturbance amplitude is positively correlated with the vibration coefficient.

[0101] The guide rail introduces a periodic fluctuation component based on the guide rail speed fluctuation coefficient, and the fluctuation frequency and amplitude are set by the speed fluctuation coefficient.

[0102] The paper feeding system incorporates systematic errors based on the paper feeding step error coefficient to simulate the impact of pass phenomena on image stitching.

[0103] The virtual printing subsystem includes a virtual printhead, virtual guide rails, a virtual paper feeding system, and virtual printing media. Each subsystem has a clearly defined interface and interaction logic to ensure the modularity and scalability of the system.

[0104] The virtual printing engine is responsible for parsing the printing task and generating coordinated control instructions for motion trajectory planning, inkjet timing, and paper feed synchronization by combining hardware characteristic parameters.

[0105] The physical disturbance value is calculated based on the error simulation parameters and correlation functions, and the cooperative control command is corrected to generate virtual printing results.

[0106] The interactive interface outputs virtual printing results and system status data, including the nozzle status of the virtual printhead, guide rail movement error, and paper feed accuracy data; ink viscosity, media absorbency, and clogging probability predictions calculated in real time based on environmental influence parameters; and a time-series log of the virtual printing process and abnormal status alarm information.

[0107] In practice, laboratory test data under different environmental conditions are collected, including temperature-viscosity data, humidity-ink absorption data, and dust concentration-clogging probability data.

[0108] The least squares method was used to fit the measured data to the curve and determine the coefficient values ​​in the correlation function.

[0109] The threshold is dynamically adjusted based on the fitting results, and the output value of the correlation function is automatically updated when the environmental parameters exceed the threshold.

[0110] Determine the nozzle diameter, number of nozzles, and arrangement of the printhead.

[0111] Determine the maximum speed, acceleration, and length of the guide rail.

[0112] Determine the paper feed speed, paper thickness, and dimensions of the paper feeding system.

[0113] Determine the vibration coefficient of the printhead.

[0114] Determine the speed fluctuation coefficient of the guide rail.

[0115] Determine the paper feed step error coefficient.

[0116] Define the virtual printing subsystem interface and interaction logic:

[0117] Virtual printhead system interface:

[0118] MoveTo(x, y): Controls the virtual printhead to move to the specified position.

[0119] FireNozzles(color, intensity): Simulates the spraying of ink of the specified color and intensity.

[0120] GetStatus(): Gets the status of the virtual print head.

[0121] Configure(headConfiguration): Configures the properties of the virtual print head.

[0122] Virtual rail system interface:

[0123] MoveCarriage(distance): Simulates the printhead carriage moving a specified distance on the guide rail.

[0124] GetCarriagePosition(): Gets the current position of the printhead carriage.

[0125] SetSpeed(speed): Sets the speed at which the printhead carriage moves.

[0126] GetConstraints(): Gets the physical constraints of the rails.

[0127] Virtual paper feeding system interface:

[0128] FeedPaper(distance): Simulates the specified distance for paper feeding.

[0129] GetCurrentPaperPosition(): Gets the current position of the paper.

[0130] SetPaperSize(size): Sets the size of the current paper.

[0131] GetPaperStatus(): Gets the status of the paper.

[0132] Virtual printing media interface:

[0133] ApplyInk(x, y, color, intensity): Simulates applying ink of a specified color and intensity to a specified location.

[0134] GetPixelColor(x, y): Gets the color at the specified position on the virtual medium.

[0135] SetMediaType(mediaType): Sets the type of virtual media.

[0136] GetProperties(): Retrieves the properties of the virtual media.

[0137] Implement each virtual subsystem

[0138] Virtual printhead system implementation:

[0139] Internally maintain the status and position of the virtual nozzle.

[0140] The MoveTo() method updates the position of the virtual printhead.

[0141] The FireNozzles() method will trigger the application of ink on the virtual printing media.

[0142] It can simulate error states such as nozzle clogging and insufficient ink.

[0143] Virtual guide rail system implementation:

[0144] Maintain the current position and speed of the virtual printhead carriage.

[0145] The MoveCarriage() method updates the position based on velocity and time, taking into account the physical constraints of the rails.

[0146] It can simulate motion errors, speed instability, and other situations.

[0147] Virtual paper feeding system implementation:

[0148] Maintain the current position of the virtual paper.

[0149] The FeedPaper() method updates the position of the paper.

[0150] Paper size and feed direction need to be considered.

[0151] It can simulate error states such as paper shortage and paper jam.

[0152] Virtual printing media implementation:

[0153] Use a two-dimensional data structure, such as a pixel matrix, to represent the virtual printing medium.

[0154] The ApplyInk() method updates the pixel value at the corresponding position based on the color and intensity of the ink, taking into account the absorption characteristics of the medium.

[0155] The GetPixelColor() method returns the color value at the specified location.

[0156] The effect of ink application can be adjusted according to different media types.

[0157] Connecting the various virtual subsystems: After implementing the various subsystems, they need to be connected so that they can work together. This is usually done in the main implementation of the virtual printer.

[0158] Virtual printer implementation:

[0159] It contains instances of various virtual subsystems.

[0160] The ReceivePrintJob() method parses the print data and settings and passes them to the appropriate subsystem.

[0161] The StartPrint() method coordinates the virtual printhead, guide rails, and paper feed system to perform simulated operations according to the requirements of the printing task.

[0162] Event mechanisms (such as the observer pattern) can be used to notify external components of printing progress and state changes.

[0163] Implement virtual printing engine and printing process control

[0164] The virtual printing engine is the core that controls the entire virtual printing process.

[0165] The received print job (such as a series of drawing instructions) is broken down into a sequence of actions that the virtual printhead, guide rails, and paper feed system can understand.

[0166] Based on the limitations of the printing task and the virtual guide system, plan the movement trajectory of the virtual print head.

[0167] Trigger the ink jetting action of the virtual printhead at the appropriate time and location, and transmit the ink information to the virtual printing medium.

[0168] Control the paper feed amount of the virtual paper feed system according to printing needs.

[0169] Ensure that the operation of the virtual printhead, guide rails, and paper feeding system is synchronized.

[0170] To facilitate the use of this virtual printer by software engineers, appropriate interaction methods need to be provided.

[0171] API (Application Programming Interface): Provides a set of functions or methods that allow the software under test to send print jobs to a virtual printer and query its status and results.

[0172] Simple User Interface (Optional): Develop a simple graphical interface for configuring virtual printer parameters, viewing the print queue, monitoring the printing process, and viewing virtual print results.

[0173] Choose a programming language and framework, such as Java, C#, Python, etc., implement each component step by step, and perform unit testing and integration testing to verify the functionality and performance of the virtual printer.

[0174] Through the above embodiments, we have described in detail the implementation steps and key technologies of a virtual printer design method. This method constructs a multiphysics parameterized model, defines the interface and interaction logic of the virtual printing subsystem, realizes the virtual printing engine and printing process control, provides a user interface or API for interaction, and implements and tests it. Ultimately, it realizes an efficient and controllable virtual printer environment, improves software development efficiency, shortens the overall development cycle, reduces development costs, improves software quality and stability, and promotes software and hardware collaborative development.

[0175] The same or similar labels correspond to the same or similar parts;

[0176] The terms used to describe positional relationships in the accompanying drawings are for illustrative purposes only and should not be construed as limiting this patent.

[0177] Obviously, the above embodiments of the present invention are merely examples for clearly illustrating the present invention, and are not intended to limit the implementation of the present invention. For those skilled in the art, other variations or modifications can be made based on the above description. It is neither necessary nor possible to exhaustively list all implementation methods here. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention should be included within the protection scope of the claims of the present invention.

Claims

1. A virtual printer design method, characterized in that, include: A multiphysics parameterized model is constructed, which includes environmental impact parameters, hardware characteristic parameters, and error simulation parameters. The environmental impact parameters characterize the mapping relationship between environmental factors and printing effect through correlation functions. The hardware characteristic parameters include physical constraint parameters of the print head, guide rail, and paper feeding system. The error simulation parameters are used to introduce physical disturbances. The virtual printing subsystem interface and interaction logic are defined based on the multiphysics parameterization model. The virtual printing subsystem includes a virtual printhead, a virtual guide rail, a virtual paper feeding system, and a virtual printing medium. The virtual printing engine analyzes the printing task and combines it with hardware characteristic parameters to generate collaborative control instructions for motion trajectory planning, inkjet timing and paper feed synchronization. The physical disturbance value is calculated based on the error simulation parameters and correlation functions, and the cooperative control command is corrected to generate virtual printing results; It provides an interactive interface to output virtual printing results and system status data.

2. The virtual printer design method as described in claim 1, characterized in that, The correlation functions for the environmental impact parameters include: The temperature-viscosity function characterizes the effect of temperature on ink viscosity, and its functional form is as follows: ; in, The viscosity of the ink at standard temperature. Temperature-related factor; The humidity-ink absorption function characterizes the effect of humidity on the ink absorption properties of a medium. The function has the following form: ; in, Ink absorption at standard humidity. Humidity-related factor; The dust concentration-clogging probability function is used to characterize the impact of dust on nozzle clogging, and the function has the following form: ; in, This represents the probability of clogging in a cleanroom environment. This is a dust correlation factor.

3. The virtual printer design method as described in claim 1, characterized in that, The hardware characteristic parameters include: the nozzle diameter, number of nozzles, and arrangement of the printhead. The nozzle diameter is determined by... The droplet size is related, where d is the nozzle diameter. , These are the experimental fitting constants; The maximum speed, acceleration, and length of the guide rail, and the guide rail movement time are determined by... Where L is the length of the guide rail. For maximum speed, This is the maximum acceleration; The paper feeding system's paper feed speed, paper thickness, and size, and the distance between the print head and the paper are determined by... Calculation, where For paper thickness, is the experimental fitting constant.

4. The virtual printer design method as described in claim 1, characterized in that, The methods for introducing physical disturbances into the error simulation parameters include: The ink droplet landing point is corrected based on the printhead vibration coefficient superimposed with random disturbance, and the disturbance amplitude is positively correlated with the vibration coefficient; A periodic fluctuation component is introduced based on the guide rail speed fluctuation coefficient, wherein the fluctuation frequency and amplitude are set by the speed fluctuation coefficient; By incorporating systematic errors into the paper feed step error coefficient, the impact of the pass channel phenomenon on image stitching is simulated.

5. The virtual printer design method as described in claim 1, characterized in that, The virtual printing engine parses printing tasks including: The print job is converted into a pixel matrix, and scan line inkjet instructions are generated by combining the print resolution. Based on the guide rail motion constraints and paper feed stepping accuracy, the printhead motion trajectory is planned using a time-optimal algorithm. An event-driven synchronization mechanism is adopted to achieve time-series coordination of printhead ink jetting, guide rail movement, and paper feeding.

6. The virtual printer design method as described in claim 2, characterized in that, The parameters of the correlation function are determined in the following way: Collect laboratory test data under different environmental conditions, including temperature-viscosity data, humidity-ink absorption data, and dust concentration-clogging probability data; The least squares method was used to fit the measured data to determine the coefficients in the correlation function. The threshold is dynamically adjusted based on the fitting results, and the output value of the correlation function is automatically updated when the environmental parameters exceed the threshold.

7. The virtual printer design method as described in claim 1, characterized in that, The ink application simulation of the virtual printing medium includes: Based on medium absorbance parameters and diffusion equations Calculate the ink diffusion range, where C is the ink concentration and D is the diffusion coefficient; Pixel values ​​are corrected by combining media color characteristic parameters, and attribute configuration is supported for the same media type.

8. The virtual printer design method as described in claim 1, characterized in that, The system status data output by the interactive interface includes: The virtual printhead's nozzle status, guide rail movement error, and paper feed accuracy data; Predicted values ​​of ink viscosity, media ink absorption and clogging probability based on real-time calculation of environmental impact parameters; The timing log and abnormal status alarm information of the virtual printing process.

9. A virtual printer design device, characterized in that, include: Memory, used to store computer programs; A processor, configured to implement the steps of the virtual printer design method as described in any one of claims 1-8 when executing the computer program.

10. A computer-readable storage medium, characterized in that, The storage medium stores a computer program, which, when executed by a processor, implements the steps of the virtual printer design method as described in any one of claims 1-8.

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