CN117193926B - Computer-aided counting instrument human-computer interface generation method and system - Google Patents
Computer-aided counting instrument human-computer interface generation method and system Download PDFInfo
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Abstract
The invention discloses a counting instrument man-machine interface generation method and system based on computer assistance, which relate to the technical field of man-machine interface generation and comprise the following steps: collecting data storage and analysis requirements of the counting instrument in different operation modes, and constructing a human-computer interaction situation based on the collection result pair; determining the layout and design of an interface from the initial angle of the human-computer interaction situation, and optimizing the layout of the human-computer interface by adopting a differential evolution algorithm; generating a counting instrument man-machine interface based on the optimized layout and combining a voice interaction method and a visual interaction method, and deploying a remote monitoring function by utilizing computer assistance; and carrying out test feedback on the human-computer interface, modifying and determining the communication function between the human-computer interface and the counting instrument according to the feedback result, and deploying the human-computer interface. According to the invention, the communication function between the man-machine interface and the counting instrument is more perfect by carrying out test feedback on the man-machine interface, so that the operation efficiency and the user satisfaction are further improved.
Description
Technical Field
The invention relates to the technical field of human-computer interface generation, in particular to a counting instrument human-computer interface generation method and system based on computer assistance.
Background
A counting meter is a meter for measuring and displaying a certain physical quantity, and can be used to calculate and display various types of counts such as an electric energy count, a water meter, a gas meter, a thermometer, etc. Counting instruments, which typically have a digital display screen that visually displays the measurement results, are widely used in industrial, commercial and home environments for monitoring and controlling the use and consumption of various resources.
The Human-computer interface (HCI for short) is an interface for information interaction between a person and a computer, and is a bridge for communication and interaction between a person and a computer system, so that a user can provide instructions or data for the computer through an input device and obtain feedback information from an output device of the computer, and the design of the Human-computer interface aims at providing a user-friendly interaction experience, so that the user can easily use the computer system and effectively complete required tasks.
When the counting instrument is used, the counting instrument is combined with the human-computer interface, the measurement result of the counting instrument is visually presented to a user, and the user can monitor and control the running state of the counting instrument in real time according to the human-computer interface, so that the remote operation and control of the counting instrument are realized. However, the human-computer interface of the prior art cannot monitor the running state of the human-computer interface in real time when in use, and cannot feed back and modify in time when abnormality occurs, so that the communication efficiency between the human-computer interface and the counting instrument is reduced, and the running efficiency and the user satisfaction degree are lowered.
For the problems in the related art, no effective solution has been proposed at present.
Disclosure of Invention
Aiming at the problems in the related art, the invention provides a counting instrument man-machine interface generation method and system based on computer assistance, so as to overcome the technical problems in the prior art.
For this purpose, the invention adopts the following specific technical scheme:
in a first aspect, the present invention provides a computer-assisted counting instrument man-machine interface generating method, which includes the following steps:
s1, acquiring data storage and analysis requirements of a counting instrument in different operation modes, and constructing a human-computer interaction situation based on acquisition result pairs;
s2, determining the layout and design of an interface from the initial angle of the human-computer interaction situation, and optimizing the layout of the human-computer interface by adopting a differential evolution algorithm;
s3, generating a counting instrument man-machine interface based on the optimized layout and combining a voice interaction method and a visual interaction method, and deploying a remote monitoring function by utilizing computer assistance;
s4, testing and feeding back the man-machine interface, modifying and determining the communication function between the man-machine interface and the counting instrument according to the feedback result, and deploying the man-machine interface.
Preferably, the data storage and analysis requirements of the acquisition counting instrument in different operation modes, and the construction of the human-computer interaction situation based on the acquisition result pair comprises the following steps:
s11, knowing the data requirement of a demander on the counting instrument, and determining various operation modes of the counting instrument during working;
s12, judging related data contents in various operation modes based on the operation modes, building a data storage library according to the data contents, and storing the data contents in a classified mode according to the different operation modes, wherein the data contents comprise at least one of a counting result, a counting time, a counting rate and a counting type;
s13, analyzing and extracting data related to user requirements by adopting a data analysis tool, performing visual management, and constructing a preset man-machine interaction situation according to data analysis results.
Preferably, from the initial point of view of the man-machine interaction situation, determining the layout and design of the interface, and optimizing the man-machine interface layout by adopting a differential evolution algorithm comprises the following steps:
s21, describing a human-computer interaction flow by using a graphical tool with the human-computer interaction situation as an initial angle, and determining a human-computer interface function based on the interaction flow;
s22, constructing an interface function layout model according to the human-computer interface function and a plurality of layout principles, and determining an adaptability function of the layout model based on the ideal point positions to perform page layout design;
s23, converting the optimized functional layout into a discrete optimization space, establishing a layout index evaluation method through analysis of an optimization target, and introducing the discrete optimization space into a differential evolution algorithm to judge the optimization degree of the optimized layout.
Preferably, constructing an interface function layout model according to a human-computer interface function and a plurality of layout principles, and determining an fitness function of the layout model based on ideal point positions to perform page layout design, wherein the method comprises the following steps:
s221, acquiring functions required by a human-computer interface, classifying the functions into a necessary function and a secondary function, defining and describing each function, and constructing an interface function layout model by taking the definition of the necessary function, the secondary function and each function as references;
s222, establishing a membership function in a functional layout model by taking a limit and importance as requirements to determine an optimization range so as to solve a multi-objective optimization problem;
s223, acquiring expected values and tolerance according to the membership function, establishing a multi-objective optimization model to acquire ideal point positions of the interface function, and carrying out normalization processing on the ideal point positions to establish an adaptability function;
and S224, optimizing the fitness function through the solution set to output an optimal page layout design arrangement result.
Preferably, the optimized functional layout is converted into a discrete optimization space, a layout index evaluation method is established through analysis of an optimization target, and the discrete optimization space is introduced into a differential evolution algorithm to judge the optimization degree of the optimized layout, wherein the optimization degree comprises the following steps:
s231, defining various functional elements on the interface in the functional layout, and converting each functional element into discrete layout parameters to realize discrete optimization space conversion;
s232, a layout index evaluation method is established by a preset optimization target, and an optimal layout parameter is searched in a discrete optimization space by using a differential evolution algorithm;
s233, judging the optimization degree of the layout by applying a layout index evaluation method according to the layout parameters.
Preferably, the method for generating the counting instrument man-machine interface based on the optimized layout and combining the voice interaction and the visual interaction comprises the following steps of:
s31, constructing a simulation model based on page layout design and instrument technology function, and transmitting a simulation result to a virtual visual interface of a counting instrument in real time for visualization;
s32, generating a voice control instruction of the counting instrument by using the interaction equipment of the virtual visual interface to control the instruction display of the counting instrument;
s33, setting voice to send out an interaction demand instruction, and setting a visual interface to display corresponding content according to a voice recognition result to finish the generation of a man-machine interface of the interaction completion counting instrument;
s34, collecting and classifying risk factors of the counting instrument man-machine interface, and constructing and arranging a remote monitoring function in the counting instrument man-machine interface based on a computer safety monitoring technology as an auxiliary for safety intelligent monitoring;
s35, an evaluation index system for monitoring the operation condition of the human-computer interface by a computer is established according to a polling investigation method, and the operation risk of the human-computer interface is predicted according to an evaluation result, so that the remote monitoring of the human-computer interface is realized.
Preferably, the risk factors of the counting instrument man-machine interface are collected and classified, the safety intelligent monitoring is constructed and arranged in the counting instrument man-machine interface based on the computer safety monitoring technology as assistance, and the remote monitoring function is deployed in the counting instrument man-machine interface, and the method comprises the following steps:
s341, collecting interaction records of a human-computer interface, analyzing potential risk factors of the human-computer interface and classifying the potential risk factors, wherein the classification comprises data leakage caused by inconsistent voice output and visual display and data leakage caused by external malicious attack and safety problems caused by improper operation;
s342, designing an intelligent monitoring platform comprising a risk safety assessment function, a safety alarm function, an intelligent monitoring function and an emergency processing function according to a risk classification result, and constructing hardware of the intelligent monitoring platform;
s343, adopting a programmable logic array to design a software part of the intelligent monitoring platform, and inhibiting the distortion condition of monitoring according to an attenuation inhibition method in the design process;
and S344, acquiring a monitoring information state of the intelligent monitoring platform according to the inhibition result, acquiring a beam shape of the monitoring information state by using an intelligent monitoring beam control method, and analyzing the beam shape to acquire monitoring risk characteristics.
Preferably, an evaluation index system for monitoring the operation condition of the human-computer interface by a computer is established according to a polling investigation method, the operation risk of the human-computer interface is predicted according to an evaluation result, and the remote monitoring of the human-computer interface is realized by the following steps:
s351, presetting the number of indexes in an evaluation index system layer of the operation condition of a human-computer interface, and carrying out index assessment of preset times by adopting a polling investigation method;
s352, counting the concentration degree and the dispersion degree of the evaluation result of each index, and screening the evaluation index of the human-computer interface operation condition according to the counting result to construct an evaluation index system;
s353, inputting the real-time operation data into an evaluation index system to obtain an evaluation result, and predicting the operation risk of the human-computer interface according to the evaluation result to realize remote monitoring of the human-computer interface.
Preferably, the calculation formula of the concentration is:
the calculation formula of the dispersion is as follows:
wherein T is i Concentration value representing i-th index evaluation result, E i A represents the dispersion value of the i-th index evaluation result, a represents the number of index evaluation times, y b The results of the b-th poll survey are shown.
In a second aspect, the invention also provides a counting instrument man-machine interface generating system based on computer assistance, which comprises an acquisition and construction module, a layout design optimizing module, an interface generating and monitoring module and a feedback deployment module;
the system comprises an acquisition construction module, a layout design optimization module, an interface generation monitoring module, a feedback deployment module and a feedback deployment module, wherein the acquisition construction module is connected with the layout design optimization module;
the acquisition and construction module is used for acquiring data storage and analysis requirements of the counting instrument in different operation modes and constructing a human-computer interaction situation based on acquisition result pairs;
the layout design optimization module is used for determining the layout and design of the interface from the initial angle of the human-computer interaction situation, and optimizing the human-computer interface layout by adopting a differential evolution algorithm;
the interface generation monitoring module is used for generating a counting instrument man-machine interface based on the optimized layout and combining a voice interaction method and a visual interaction method, and deploying a remote monitoring function by utilizing computer assistance;
the feedback deployment module is used for testing and feeding back the man-machine interface, modifying and determining the communication function between the man-machine interface and the counting instrument according to the feedback result and deploying the man-machine interface.
The beneficial effects of the invention are as follows:
1. the invention provides a counting instrument man-machine interface generation method based on computer assistance, which is characterized in that firstly, data storage and analysis requirements of a counting instrument are acquired under different operation modes, so that the actual operation requirements can be more accurately met, the operation efficiency is improved, the man-machine interface of the counting instrument is strong in interactivity by combining a differential evolution algorithm, voice interaction and a visual interaction method, meanwhile, the operation state of the man-machine interface is known anytime and anywhere by utilizing a remote monitoring function of computer assistance deployment, the man-machine interface is tested and fed back, and timely modification is carried out according to a feedback result, so that the communication function between the man-machine interface and the counting instrument is more perfect, and the operation efficiency and the user satisfaction are further improved.
2. The invention takes the man-machine interaction situation as an initial angle, ensures that the design and the function of the man-machine interface meet the actual requirement and the use scene of a user, ensures that the interface has the function of meeting the requirement of the user, avoids the problem of functional redundancy or deficiency, and constructs an interface function layout model by combining the man-machine interface function with a plurality of layout principles, thereby ensuring the reasonable structure of the interface and the usability of the function layout.
3. According to the invention, the voice control instruction of the counting instrument is generated by utilizing the interaction equipment of the virtual visual interface, the corresponding content is displayed according to the voice recognition result, the combination of voice interaction and visual interaction is realized, a more diversified user interaction mode is provided, the remote monitoring function is deployed through the assistance of the computer, the computer safety monitoring technology is used as assistance, the remote monitoring function is deployed in the man-machine interface of the counting instrument, the running condition of the counting instrument can be monitored in real time, the safety and the reliability are improved, the running condition of the man-machine interface is comprehensively evaluated and monitored, the running risk is predicted according to the evaluation result, the running condition of the counting instrument is monitored in real time, the abnormality and the problem are found in time, the remote adjustment and the management are carried out, and the efficiency and the convenience are improved.
Drawings
In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings that are needed in the embodiments will be briefly described below, and it is obvious that the drawings in the following description are only some embodiments of the present invention, and other drawings may be obtained according to these drawings without inventive effort for a person skilled in the art.
FIG. 1 is a flow chart of a computer-aided counting instrument based human-machine interface generation method according to an embodiment of the invention;
FIG. 2 is a functional block diagram of a computer-aided counting instrument based human-machine interface generation system according to an embodiment of the present invention.
In the figure:
1. the acquisition and construction module; 2. a layout design optimization module; 3. an interface generation monitoring module; 4. and feeding back a deployment module.
Detailed Description
For the purpose of further illustrating the various embodiments, the present invention provides the accompanying drawings, which are a part of the disclosure of the present invention, and which are mainly used for illustrating the embodiments and for explaining the principles of the operation of the embodiments in conjunction with the description thereof, and with reference to these matters, it will be apparent to those skilled in the art to which the present invention pertains that other possible embodiments and advantages of the present invention may be practiced.
According to the embodiment of the invention, a counting instrument man-machine interface generation method and system based on computer assistance are provided.
The invention will be further described with reference to the accompanying drawings and detailed description, as shown in fig. 1, a computer-assisted counting instrument based human-computer interface generating method according to an embodiment of the invention includes the following steps:
s1, acquiring data storage and analysis requirements of a counting instrument in different operation modes, and constructing a human-computer interaction situation based on acquisition results.
In this embodiment, the data storage and analysis requirements of the collection counting instrument in different operation modes, and the construction of the human-computer interaction situation based on the collection result pair includes the following steps:
s11, knowing the data requirement of a demander on the counting instrument, and determining various operation modes of the counting instrument during working;
s12, judging related data contents in various operation modes based on the operation modes, building a data storage library according to the data contents, and storing the data contents in a classified mode according to the different operation modes, wherein the data contents comprise at least one of a counting result, a counting time, a counting rate and a counting type;
s13, analyzing and extracting data related to user requirements by adopting a data analysis tool, performing visual management, and constructing a preset man-machine interaction situation according to data analysis results.
Specifically, by collecting the data of the counting instrument in different operation modes, a complete data set can be established, the counting data and related indexes in various operation modes are contained, and the data can be stored to provide a basis for subsequent data analysis and research and a reference basis for system performance evaluation and optimization.
In conclusion, the data storage and analysis of the counting instrument in different operation modes and the construction of the human-computer interaction situation based on the acquisition result can provide more comprehensive, accurate and real-time information display and operation control, improve the understanding and use experience of the counting instrument by a user, and optimize the performance and reliability of the system.
S2, determining the layout and design of the interface from the initial angle of the human-computer interaction situation, and optimizing the layout of the human-computer interface by adopting a differential evolution algorithm.
In this embodiment, from the initial angle of the human-computer interaction scenario, determining the layout and design of the interface, and optimizing the human-computer interface layout by adopting a differential evolution algorithm includes the following steps:
s21, describing a human-computer interaction flow by using the graphical tool with the human-computer interaction situation as an initial angle, and determining a human-computer interface function based on the interaction flow.
Specifically, the human-computer interaction process is described by using the graphical tool with the human-computer interaction situation as an initial angle, and the human-computer interface function is determined based on the interaction process, and the method comprises the following steps:
according to the situation description, a graphical tool is used for displaying the flow of counting data of the counting instrument in the mode in real time according to the operation mode selected by the user through operating a mode selection button or a pull-down menu to select different operation modes of the counting instrument.
The required functions of the man-machine interface are determined based on the simulation flow, including operation mode selection, data display, operation instruction input, state information display and the like.
S22, an interface function layout model is built according to the man-machine interface function and a plurality of layout principles, and the fitness function of the layout model is determined based on the ideal point positions to carry out page layout design.
Specifically, the method for constructing an interface function layout model according to a human-computer interface function and a plurality of layout principles, and determining an fitness function of the layout model based on ideal point positions to perform page layout design comprises the following steps:
s221, acquiring functions required by a human-computer interface, classifying the functions into a necessary function and a secondary function, defining and describing each function, and constructing an interface function layout model by taking the definition of the necessary function, the secondary function and each function as references;
s222, establishing a membership function in a functional layout model by taking a limit and importance as requirements to determine an optimization range so as to solve a multi-objective optimization problem;
s223, acquiring expected values and tolerance according to the membership function, establishing a multi-objective optimization model to acquire ideal point positions of the interface function, and carrying out normalization processing on the ideal point positions to establish an adaptability function;
and S224, optimizing the fitness function through the solution set to output an optimal page layout design arrangement result.
S23, converting the optimized functional layout into a discrete optimization space, establishing a layout index evaluation method through analysis of an optimization target, and introducing the discrete optimization space into a differential evolution algorithm to judge the optimization degree of the optimized layout.
Specifically, the optimized functional layout is converted into a discrete optimization space, a layout index evaluation method is established through analysis of an optimization target, and the discrete optimization space is introduced into a differential evolution algorithm to judge the optimization degree of the optimized layout, wherein the method comprises the following steps:
s231, defining various functional elements on the interface in the functional layout, and converting each functional element into discrete layout parameters to realize discrete optimization space conversion;
s232, a layout index evaluation method is established by a preset optimization target, and an optimal layout parameter is searched in a discrete optimization space by using a differential evolution algorithm;
s233, judging the optimization degree of the layout by applying a layout index evaluation method according to the layout parameters.
By means of the scheme, the man-machine interaction situation is taken as an initial angle, the design and the function of the man-machine interface can be ensured to meet the actual requirements and the use scenes of users, the interface is ensured to have the function of meeting the requirements of the users, and the reasonable structure and the usability of the functional layout of the interface are ensured.
And S3, generating a counting instrument man-machine interface based on the optimized layout and combining a voice interaction method and a visual interaction method, and deploying a remote monitoring function by utilizing computer assistance.
In this embodiment, the method for generating the counting instrument man-machine interface based on the optimized layout and combining the voice interaction and the visual interaction, and using the computer to assist in deploying the remote monitoring function includes the following steps:
s31, constructing a simulation model based on page layout design and instrument technology function, and transmitting a simulation result to a virtual visual interface of the counting instrument in real time for visualization.
Specifically, constructing a simulation model based on page layout design and instrument technology function, and transmitting a simulation result to a virtual visual interface of a counting instrument in real time for visualization, wherein the method comprises the following steps:
according to the requirements and user experience design principle, interface layout design is carried out, the overall structure of the page is determined, including navigation bars, side bars, main content areas and the like, and the attractiveness, usability and functionality of the layout are considered.
According to the functional requirements of the simulation model, corresponding page elements such as charts, tables, indicators, buttons and the like are designed, so that the page elements can be ensured to clearly convey simulation result information and interact with a user.
According to the designed interface layout and page elements, a simulation model is developed, the simulation result is transmitted to the virtual visual interface of the counting instrument in real time for visualization, and the simulation result is transmitted to the virtual interface of the counting instrument through a proper data transmission protocol, so that the accuracy and the instantaneity of data are ensured.
According to the transmitted simulation result, data visualization is performed in the virtual visual interface of the counting instrument, and interactive functions such as clicking a button, dragging a sliding block and the like are provided in the virtual visual interface of the counting instrument, so that interaction with the simulation model is ensured, and feedback is timely obtained.
Through the steps, the results of the simulation model are transmitted to the virtual visual interface of the counting instrument in real time for visualization, so that a user is helped to intuitively know the simulation results and perform interactive operation, and the virtual visual interface can be ensured to provide a more intuitive and convenient mode for observing and controlling the operation of the simulation model.
S32, generating a voice control instruction of the counting instrument by using the interaction equipment of the virtual visual interface to control the instruction display of the counting instrument.
Specifically, the method for generating the voice control instruction of the counting instrument by using the interaction equipment of the virtual visual interface to control the instruction display of the counting instrument comprises the following steps:
the voice recognition function is set on the interaction equipment of the virtual visual interface, various voice instructions supported by the counting instrument are recorded, when a user inputs the voice through the microphone, the voice is recognized by the voice recognition, and the recognition result is matched with the instruction word list to recognize the specific instruction input by the user.
And transmitting the recognized voice command to the constructed counter simulation model, controlling the simulation model to perform corresponding operation, displaying the received and executed voice command on a counter interface of the virtual visual interface, and updating the data display and the state information of the counter in real time in the interface according to the operation result of the simulation model controlled by the voice command.
S33, setting voice to send out an interaction demand instruction, and setting a visual interface to display corresponding content according to a voice recognition result to finish the generation of the man-machine interface of the interaction completion counting instrument.
Specifically, the method for setting the voice to send out the interaction demand instruction and setting the visual interface to display the corresponding content according to the voice recognition result to finish the generation of the man-machine interface of the interaction completion counting instrument comprises the following steps:
and determining a voice instruction supported by the counting instrument, configuring a voice recognition module in a human-computer interface of the counting instrument so as to recognize the voice instruction input by a user, and converting the voice into a text form by the voice recognition module when the user sends the voice instruction, and converting the voice instruction of the user into an understandable text by a voice recognition algorithm and a model.
And dynamically generating corresponding content in a human-computer interface of the counting instrument according to the voice recognition result, updating the human-computer interface display of the counting instrument according to the content generated by the recognition result, and providing corresponding voice feedback for a user while updating the interface display.
S34, collecting and classifying risk factors of the counting instrument man-machine interface, and constructing and setting a remote monitoring function in the counting instrument man-machine interface based on the computer safety monitoring technology as an auxiliary for safety intelligent monitoring.
Specifically, collecting and classifying risk factors of the counting instrument man-machine interface, constructing and setting the safety intelligent monitoring in the counting instrument man-machine interface based on the computer safety monitoring technology as assistance, and deploying a remote monitoring function in the counting instrument man-machine interface, wherein the method comprises the following steps of:
s341, collecting interaction records of a human-computer interface, analyzing potential risk factors of the human-computer interface and classifying the potential risk factors, wherein the classification comprises data leakage caused by inconsistent voice output and visual display and data leakage caused by external malicious attack and safety problems caused by improper operation;
s342, designing an intelligent monitoring platform comprising a risk safety assessment function, a safety alarm function, an intelligent monitoring function and an emergency processing function according to a risk classification result, and constructing hardware of the intelligent monitoring platform;
s343, adopting a programmable logic array to design a software part of the intelligent monitoring platform, and inhibiting the distortion condition of monitoring according to an attenuation inhibition method in the design process;
and S344, acquiring a monitoring information state of the intelligent monitoring platform according to the inhibition result, acquiring a beam shape of the monitoring information state by using an intelligent monitoring beam control method, and analyzing the beam shape to acquire monitoring risk characteristics.
S35, an evaluation index system for monitoring the operation condition of the human-computer interface by a computer is established according to a polling investigation method, and the operation risk of the human-computer interface is predicted according to an evaluation result, so that the remote monitoring of the human-computer interface is realized.
Specifically, an evaluation index system for monitoring the operation condition of the human-computer interface by a computer is established according to a polling investigation method, the operation risk of the human-computer interface is predicted according to an evaluation result, and the remote monitoring of the human-computer interface is realized by the following steps:
s351, presetting the number of indexes in an evaluation index system layer of the operation condition of a human-computer interface, and carrying out index assessment of preset times by adopting a polling investigation method.
S352, counting the concentration degree and the dispersion degree of the evaluation result of each index, and screening the evaluation index of the human-computer interface operation condition according to the counting result to construct an evaluation index system.
The calculation formula of the concentration degree is as follows:
the calculation formula of the dispersion is as follows:
wherein T is i Concentration value representing i-th index evaluation result, E i A represents the dispersion value of the i-th index evaluation result, a represents the number of index evaluation times, y b The results of the b-th poll survey are shown.
S353, inputting the real-time operation data into an evaluation index system to obtain an evaluation result, and predicting the operation risk of the human-computer interface according to the evaluation result to realize remote monitoring of the human-computer interface.
By means of the steps, the voice control instruction of the counting instrument is generated through the interaction equipment utilizing the virtual visual interface, corresponding content is displayed according to the voice recognition result, combination of voice interaction and visual interaction is achieved, a more diversified user interaction mode is provided, a remote monitoring function is deployed through computer assistance, anomalies and problems can be found timely, remote adjustment and management are conducted, and efficiency and convenience are improved.
S4, testing and feeding back the man-machine interface, modifying and determining the communication function between the man-machine interface and the counting instrument according to the feedback result, and deploying the man-machine interface.
In this embodiment, the human-computer interface is modified and optimized by testing the human-computer interface and collecting user feedback, so as to improve usability, reliability and user experience of the interface.
The purpose is to ensure that the human-computer interface can accurately and correctly display corresponding content, accurately communicate with the counting instrument, deploy the tested and optimized human-computer interface, ensure that the communication function between the interface and the counting instrument works normally, and integrate with the hardware and software system of the counting instrument in a seamless way. The voice command interaction device ensures that interaction can be carried out with the counting instrument through the voice command in actual use, reduces the complexity of manual operation and improves the working efficiency.
As shown in fig. 2, according to another embodiment of the present invention, there is further provided a counting instrument man-machine interface generating system based on computer assistance, which includes an acquisition and construction module 1, a layout design optimizing module 2, an interface generating and monitoring module 3, and a feedback deployment module 4;
the system comprises an acquisition construction module 1, a layout design optimization module 2, an interface generation monitoring module 3, a feedback deployment module 4 and a feedback deployment module 2, wherein the acquisition construction module 1 is connected with the layout design optimization module 2;
the acquisition and construction module 1 is used for acquiring data storage and analysis requirements of the counting instrument in different operation modes and constructing a human-computer interaction situation based on acquisition result pairs;
the layout design optimization module 2 is used for determining the layout and design of the interface from the initial angle of the human-computer interaction situation, and optimizing the human-computer interface layout by adopting a differential evolution algorithm;
the interface generation monitoring module 3 is used for generating a counting instrument man-machine interface based on the optimized layout and combining a voice interaction method and a visual interaction method, and deploying a remote monitoring function by utilizing computer assistance;
and the feedback deployment module 4 is used for carrying out test feedback on the human-computer interface, modifying and determining the communication function between the human-computer interface and the counting instrument according to the feedback result and deploying the human-computer interface.
In summary, by means of the above technical scheme, the invention provides a computer-assisted counting instrument man-machine interface generation method, which is characterized in that firstly, data storage and analysis requirements of a counting instrument are acquired under different operation modes, so that the actual operation requirements can be more accurately met, the operation efficiency is improved, the man-machine interface of the counting instrument is high in interactivity, meanwhile, the remote monitoring function of computer-assisted deployment is utilized, the operation state of the man-machine interface is known anytime and anywhere, the man-machine interface is tested and fed back, the communication function between the man-machine interface and the counting instrument is more complete by timely modifying according to the feedback result, and the operation efficiency and the user satisfaction degree are further improved. The invention takes the man-machine interaction situation as an initial angle, ensures that the design and the function of the man-machine interface meet the actual requirement and the use scene of a user, ensures that the interface has the function of meeting the requirement of the user, avoids the problem of functional redundancy or deficiency, and constructs an interface function layout model by combining the man-machine interface function with a plurality of layout principles, thereby ensuring the reasonable structure of the interface and the usability of the function layout. According to the invention, the voice control instruction of the counting instrument is generated by utilizing the interaction equipment of the virtual visual interface, the corresponding content is displayed according to the voice recognition result, the combination of voice interaction and visual interaction is realized, a more diversified user interaction mode is provided, the remote monitoring function is deployed through the assistance of the computer, the computer safety monitoring technology is used as assistance, the remote monitoring function is deployed in the man-machine interface of the counting instrument, the running condition of the counting instrument can be monitored in real time, the safety and the reliability are improved, the running condition of the man-machine interface is comprehensively evaluated and monitored, the running risk is predicted according to the evaluation result, the running condition of the counting instrument is monitored in real time, the abnormality and the problem are found in time, the remote adjustment and the management are carried out, and the efficiency and the convenience are improved.
The foregoing description of the preferred embodiments of the invention is not intended to be limiting, but rather is intended to cover all modifications, equivalents, alternatives, and improvements that fall within the spirit and scope of the invention.
Claims (7)
1. The counting instrument man-machine interface generation method based on the computer assistance is characterized by comprising the following steps of:
s1, acquiring data storage and analysis requirements of a counting instrument in different operation modes, and constructing a human-computer interaction situation based on acquisition result pairs;
s2, determining the layout and design of an interface from the initial angle of the human-computer interaction situation, and optimizing the layout of the human-computer interface by adopting a differential evolution algorithm;
s3, generating a counting instrument man-machine interface based on the optimized layout and combining a voice interaction method and a visual interaction method, and deploying a remote monitoring function by utilizing computer assistance;
s4, testing and feeding back the human-computer interface, modifying and determining a communication function between the human-computer interface and the counting instrument according to a feedback result, and deploying the human-computer interface;
the method for optimizing the human-computer interface layout by adopting the differential evolution algorithm comprises the following steps of:
s21, describing a human-computer interaction flow by using a graphical tool with the human-computer interaction situation as an initial angle, and determining a human-computer interface function based on the interaction flow;
s22, constructing an interface function layout model according to the human-computer interface function and a plurality of layout principles, and determining an adaptability function of the layout model based on the ideal point positions to perform page layout design;
s23, converting the optimized functional layout into a discrete optimization space, establishing a layout index evaluation method through analysis and optimization targets, and introducing the discrete optimization space into a differential evolution algorithm to judge the optimization degree of the optimized layout;
the method for constructing the interface function layout model according to the man-machine interface function and the plurality of layout principles and determining the fitness function of the layout model based on the ideal point position for page layout design comprises the following steps:
s221, acquiring functions required by a human-computer interface, classifying the functions into a necessary function and a secondary function, defining and describing each function, and constructing an interface function layout model by taking the definition of the necessary function, the secondary function and each function as references;
s222, establishing a membership function in a functional layout model by taking a limit and importance as requirements to determine an optimization range so as to solve a multi-objective optimization problem;
s223, acquiring expected values and tolerance according to the membership function, establishing a multi-objective optimization model to acquire ideal point positions of the interface function, and carrying out normalization processing on the ideal point positions to establish an adaptability function;
s224, optimizing the fitness function through the solution set to output an optimal page layout design arrangement result;
the method for converting the optimized functional layout into a discrete optimization space, establishing a layout index evaluation method through analysis of an optimization target, and introducing the discrete optimization space into a differential evolution algorithm to judge the optimization degree of the optimized layout comprises the following steps:
s231, defining various functional elements on the interface in the functional layout, and converting each functional element into discrete layout parameters to realize discrete optimization space conversion;
s232, a layout index evaluation method is established by a preset optimization target, and an optimal layout parameter is searched in a discrete optimization space by using a differential evolution algorithm;
s233, judging the optimization degree of the layout by applying a layout index evaluation method according to the layout parameters.
2. The method for generating a human-computer interface of a counting instrument based on computer assistance according to claim 1, wherein the data storage and analysis requirements of the counting instrument in different operation modes are collected, and the human-computer interaction situation is constructed based on the collection result pair, comprising the following steps:
s11, knowing the data requirement of a demander on the counting instrument, and determining various operation modes of the counting instrument during working;
s12, judging related data contents in various operation modes based on the operation modes, building a data storage library according to the data contents, and storing the data contents in a classified mode according to different operation modes, wherein the data contents comprise at least one of a counting result, a counting time, a counting rate and a counting type;
s13, analyzing and extracting data related to user requirements by adopting a data analysis tool, performing visual management, and constructing a preset man-machine interaction situation according to data analysis results.
3. The method for generating a counting instrument man-machine interface based on computer assistance according to claim 1, wherein the method for generating the counting instrument man-machine interface based on the optimized layout and combining the voice interaction and the visual interaction method, and deploying the remote monitoring function by using the computer assistance comprises the following steps:
s31, constructing a simulation model based on page layout design and instrument technology function, and transmitting a simulation result to a virtual visual interface of a counting instrument in real time for visualization;
s32, generating a voice control instruction of the counting instrument by using the interaction equipment of the virtual visual interface to control the instruction display of the counting instrument;
s33, setting voice to send out an interaction demand instruction, and setting a visual interface to display corresponding content according to a voice recognition result to finish the generation of a man-machine interface of the interaction completion counting instrument;
s34, collecting and classifying risk factors of the counting instrument man-machine interface, and constructing and arranging a remote monitoring function in the counting instrument man-machine interface based on a computer safety monitoring technology as an auxiliary for safety intelligent monitoring;
s35, an evaluation index system for monitoring the operation condition of the human-computer interface by a computer is established according to a polling investigation method, and the operation risk of the human-computer interface is predicted according to an evaluation result, so that the remote monitoring of the human-computer interface is realized.
4. The method for generating a human-computer interface of a counting instrument based on the assistance of a computer according to claim 3, wherein the steps of collecting and classifying risk factors of the human-computer interface of the counting instrument, constructing and setting safety intelligent monitoring as assistance based on a computer safety monitoring technology, and deploying a remote monitoring function in the human-computer interface of the counting instrument comprise the following steps:
s341, collecting interaction records of a human-computer interface, analyzing potential risk factors of the human-computer interface and classifying, wherein the classification comprises data leakage caused by inconsistent voice output and visual display and security problems caused by improper operation due to outside malicious attack;
s342, designing an intelligent monitoring platform comprising a risk safety assessment function, a safety alarm function, an intelligent monitoring function and an emergency processing function according to a risk classification result, and constructing hardware of the intelligent monitoring platform;
s343, adopting a programmable logic array to design a software part of the intelligent monitoring platform, and inhibiting the distortion condition of monitoring according to an attenuation inhibition method in the design process;
and S344, acquiring a monitoring information state of the intelligent monitoring platform according to the inhibition result, acquiring a beam shape of the monitoring information state by using an intelligent monitoring beam control method, and analyzing the beam shape to acquire monitoring risk characteristics.
5. The method for generating the human-computer interface of the counting instrument based on the computer assistance according to claim 4, wherein the step of establishing an evaluation index system for monitoring the operation condition of the human-computer interface according to the polling investigation method, predicting the operation risk of the human-computer interface based on the evaluation result, and realizing the remote monitoring of the human-computer interface comprises the following steps:
s351, presetting the number of indexes in an evaluation index system layer of the operation condition of a human-computer interface, and carrying out index assessment of preset times by adopting a polling investigation method;
s352, counting the concentration degree and the dispersion degree of the evaluation result of each index, and screening the evaluation index of the human-computer interface operation condition according to the counting result to construct an evaluation index system;
s353, inputting the real-time operation data into an evaluation index system to obtain an evaluation result, and predicting the operation risk of the human-computer interface according to the evaluation result to realize remote monitoring of the human-computer interface.
6. The computer-aided counting instrument man-machine interface generation method of claim 5, wherein the concentration degree is calculated according to the formula:
the calculation formula of the dispersion is as follows:
wherein T is i A concentration value representing an i-th index evaluation result;
E i a dispersion value representing an i-th index evaluation result;
a represents the number of index comments;
y b the results of the b-th poll survey are shown.
7. A counting instrument man-machine interface generation system based on computer assistance, which is used for realizing the counting instrument man-machine interface generation method based on computer assistance according to any one of claims 1-6, and is characterized in that the counting instrument man-machine interface generation system based on computer assistance comprises an acquisition construction module, a layout design optimization module, an interface generation monitoring module and a feedback deployment module;
the acquisition construction module is connected with the layout design optimization module, the layout design optimization module is connected with the interface generation monitoring module, and the interface generation monitoring module is connected with the feedback deployment module;
the acquisition and construction module is used for acquiring data storage and analysis requirements of the counting instrument in different operation modes and constructing a human-computer interaction situation based on acquisition results;
the layout design optimization module is used for determining the layout and design of the interface from the initial angle of the human-computer interaction situation, and optimizing the human-computer interface layout by adopting a differential evolution algorithm;
the interface generation monitoring module is used for generating a counting instrument man-machine interface based on the optimized layout and combining a voice interaction method and a visual interaction method, and deploying a remote monitoring function by utilizing computer assistance;
the feedback deployment module is used for testing and feeding back the man-machine interface, modifying and determining the communication function between the man-machine interface and the counting instrument according to the feedback result, and deploying the man-machine interface.
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| CN112733241A (en) * | 2021-01-15 | 2021-04-30 | 中新国际联合研究院 | Public place guardrail layout optimization method based on self-adaptive differential evolution algorithm |
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