A user interactively driven lifting table intelligent motor control method and system

Abstract

The present invention relates to the field of interactive control technology for lifting tables, and in particular to a user-interactively driven intelligent motor control method and system for lifting tables, the method comprising: accessing information equipment and establishing a one-way transmission channel, the one-way transmission channel transmitting the influencing condition information in the information equipment to a control terminal; establishing a continuous monitoring timeline according to office status information, and setting a switching time point on the continuous monitoring timeline, the switching time point divides the continuous monitoring timeline into a closed period and an open period, and the lifting table maintains a fixed height during the closed period; continuously collecting influencing condition information, and analyzing and processing the influencing condition information during the open period to generate a height adjustment instruction; the control terminal drives the motor according to the height adjustment instruction and adjusts the height of the lifting table. Through the present invention, individual health parameters and environmental data information are analyzed in real time, the height of the lifting table is intelligently adjusted, and a highly personalized working environment is provided.

Description

Technical Field

[0001] The present invention relates to the technical field of interactive control of lifting tables, and in particular to a method and system for controlling an intelligent motor of a lifting table driven by user interaction. Background Art

[0002] With the modernization of office environment and the improvement of health awareness, people's requirements for workplace facilities are also constantly upgrading, especially in the field of office furniture. Electric lifting tables are becoming increasingly popular because they can adapt to different working conditions and ergonomic needs.

[0003] Traditional electric height-adjustable desks are usually adjusted through simple manual controls or operated using basic preset programs. However, these methods do not fully utilize modern intelligent technologies to respond to users’ health data and environmental changes, and thus often fail to provide the best work experience or health support in actual use.

[0004] The information disclosed in this background technology section is only intended to deepen the understanding of the overall background technology of the present disclosure, and should not be regarded as acknowledging or suggesting in any form that the information constitutes the prior art known to those skilled in the art. Summary of the invention

[0005] The present invention provides a user interactively driven intelligent motor control method and system for a lifting table, which can effectively solve the problems in the background technology.

[0006] In order to achieve the above object, the technical solution adopted by the present invention is:

[0007] A user interactively driven intelligent motor control method for a lifting table, the method comprising:

[0008] Accessing the information device and establishing a one-way transmission channel, wherein the one-way transmission channel transmits the influencing condition information in the information device to the control terminal, wherein the control terminal drives the motor of the lifting table, and the influencing condition information includes individual health parameters and environmental data information;

[0009] Acquire office status information, establish a continuous monitoring timeline according to the office status information, and set a switching time point in the continuous monitoring timeline, wherein the switching time point divides the continuous monitoring timeline into a closed period and an open period, and during the closed period, the lifting table maintains a fixed height;

[0010] Continuously collecting the influencing condition information, and analyzing and processing the influencing condition information during the open period to generate a height adjustment instruction;

[0011] The control terminal drives the motor according to the height adjustment instruction and adjusts the height of the lifting table.

[0012] Further, accessing the information device and establishing a unidirectional transmission channel includes:

[0013] The control terminal establishes an independent unidirectional transmission channel with each of the information devices, and each of the unidirectional transmission channels only transmits the influencing condition information contained in the corresponding information device;

[0014] The influencing condition information contained in each of the information devices includes multiple information sources, and the information sources are single-dimensional data reflecting the individual health parameters or environmental data information;

[0015] At each of the information equipment terminals, the influencing condition information is packaged and processed respectively according to the information source, and transmitted to the control terminal through the corresponding unidirectional transmission channel.

[0016] Further, accessing the information device and establishing a unidirectional transmission channel includes:

[0017] Establishing a plurality of unidirectional transmission channels, wherein the number of the unidirectional transmission channels is less than the number of the information devices, and each of the unidirectional transmission channels is allowed to be used to transmit the influencing condition information from different information devices;

[0018] Packaging the influencing condition information, wherein the packaging includes uniformly encoding and segmented packaging of the influencing condition information from different information devices;

[0019] Accessing the transmission status of each of the unidirectional transmission channels, and allocating the unidirectional transmission channel to the impact condition information after the packetization process according to the transmission status;

[0020] The control terminal parses and combines the segmented and packaged influencing condition information, and restores the influencing condition information of each information device.

[0021] Furthermore, the control terminal parses and combines the segmented and packaged impact condition information to restore the impact condition information of each information device, including:

[0022] Calculating a hash value of the influencing condition information packaged in segments, wherein the hash value is used to verify the integrity of the influencing condition information packaged in segments during transmission;

[0023] Obtaining the address code of the information device of the source of the influencing condition information packaged in segments;

[0024] Adding the address code to the hash value to generate a receiving verification code;

[0025] The control terminal identifies and parses the received verification code, combines and restores the influencing condition information through the address code, and verifies the integrity of the restored influencing condition information through the hash value.

[0026] Furthermore, during the closed period, the control terminal feeds back the influencing condition information transmitted by each of the information devices, including:

[0027] During the closed period of the continuous monitoring time axis, the transmission direction of the unidirectional transmission channel is changed to enable the control terminal to transmit feedback information to the information device;

[0028] Classify and process the influencing condition information received during an open period before the closed period, and identify long-term valid information and continuously changing information as the feedback information;

[0029] The information device sets the influencing condition information to be transmitted to the control terminal during the next open period according to the continuous change information, and restores the transmission direction of the unidirectional transmission channel after the closed period ends.

[0030] Furthermore, the influencing condition information is analyzed and processed to generate a height adjustment instruction during the open period, including:

[0031] Determine and classify the influencing condition information according to execution priority, including determined item information, pending item information and invalid item information;

[0032] The determined item information is the influencing condition information that directly affects the height of the lifting table, the pending item information is the influencing condition information that indirectly affects the height of the lifting table, and the invalid item information is the influencing condition information that has no effect on the height adjustment of the lifting table;

[0033] The control terminal processes the decision item information preferentially, and calculates and generates necessary height adjustment instructions according to the decision item information;

[0034] Perform secondary analysis on the pending item information to generate a height adjustment instruction, and adjust the necessary height adjustment instruction to generate the height adjustment instruction;

[0035] Ignore the invalid item information.

[0036] Furthermore, a user experience database is constructed to continuously collect the influencing condition information, including:

[0037] Collecting basic information of frequent users of the lift table, and building a structural space of the user experience database based on the basic information of each frequent user;

[0038] Connecting the user experience database to a user shared experience network, wherein the user shared experience network collects information on influencing conditions in different information devices and height adjustment instructions corresponding to the open period;

[0039] Deep learning is performed on the data information in the user experience network to obtain the relationship between the pending information and the height adjustment instruction, and each of the structural spaces generates an adjustment memory for the height adjustment instruction.

[0040] A user-interactively driven intelligent motor control system for a lifting table, the system comprising:

[0041] A transmission channel building module, accessing the information device and establishing a one-way transmission channel, wherein the one-way transmission channel transmits the influencing condition information in the information device to the control terminal, wherein the control terminal drives the motor of the lifting table, and the influencing condition information includes individual health parameters and environmental data information;

[0042] A module for monitoring office status, obtaining office status information, establishing a continuous monitoring timeline according to the office status information, and setting a switching time point on the continuous monitoring timeline, wherein the switching time point divides the continuous monitoring timeline into a closed period and an open period, and during the closed period, the lifting table maintains a fixed height;

[0043] a scheduling instruction generation module, which continuously collects the influencing condition information, and analyzes and processes the influencing condition information during the open period to generate a height adjustment instruction;

[0044] A height adjustment execution module, wherein the control terminal drives the motor according to the height adjustment instruction and adjusts the height of the lifting table.

[0045] Furthermore, the transmission channel building module includes:

[0046] A device channel construction unit, wherein the control terminal establishes an independent unidirectional transmission channel with each of the information devices, and each of the unidirectional transmission channels only transmits the influencing condition information contained in the corresponding information device;

[0047] An information source division unit, wherein the influencing condition information contained in each of the information devices includes a plurality of information sources, and the information sources are single-dimensional data reflecting the individual health parameter or environmental data information;

[0048] The information source packaging unit packages the influencing condition information according to the information source at each information device end, and transmits it to the control terminal through the corresponding unidirectional transmission channel.

[0049] Furthermore, the scheduling instruction generation module includes:

[0050] An information determination and classification unit determines and classifies the influencing condition information according to execution priority, including determined item information, pending item information and invalid item information;

[0051] An information execution setting unit, wherein the determined item information is the influencing condition information that directly affects the height of the lifting table, the pending item information is the influencing condition information that indirectly affects the height of the lifting table, and the invalid item information is the influencing condition information that has no effect on the height adjustment of the lifting table;

[0052] The height instruction execution unit, the control terminal prioritizes the decision item information, and calculates and generates necessary height adjustment instructions based on the decision item information, performs secondary analysis on the pending item information, generates adjustment height instructions, adjusts the necessary height adjustment instructions to generate the height adjustment instructions, and ignores the invalid item information.

[0053] The technical solution of the present invention can achieve the following technical effects:

[0054] By analyzing individual health parameters and environmental data information in real time, the height of the lifting table is intelligently adjusted to provide a highly personalized working environment, thereby improving the health of users and reducing the risks of sitting for long periods of time, such as cervical and lumbar pain. By setting the switching time point and fixing the height during the closed period, this method reduces interference at work, improves work efficiency, and saves energy and extends the life of the equipment.

[0055] The above description is only an overview of the technical solution of the present application. In order to more clearly understand the technical means of the present application, it can be implemented in accordance with the contents of the specification. In order to make the above and other purposes, features and advantages of the present application more obvious and easy to understand, the specific implementation methods of the present application are listed below. BRIEF DESCRIPTION OF THE DRAWINGS

[0056] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments recorded in the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0057] Figure 1 A flow chart of a method for controlling an intelligent motor of a lifting table driven by user interaction;

[0058] Figure 2 A flow chart for accessing information equipment and establishing a unidirectional transmission channel;

[0059] Figure 3 A flowchart for restoring the influencing condition information of each information device;

[0060] Figure 4 A flowchart for generating height adjustment instructions. DETAILED DESCRIPTION

[0061] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.

[0062] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as those commonly understood by those skilled in the art of the present invention. The terms used in the specification of the present invention are only for the purpose of describing specific embodiments and are not intended to limit the present invention. The term "and / or" used herein includes any and all combinations of one or more related listed items.

[0063] Embodiment 1

[0064] like Figure 1 As shown, the present application provides a user interaction driven intelligent motor control method for a lifting table, the method comprising:

[0065] S100: Accessing the information device and establishing a one-way transmission channel, the one-way transmission channel transmits the influencing condition information in the information device to the control terminal, wherein the control terminal drives the motor of the lifting table, and the influencing condition information includes individual health parameters and environmental data information;

[0066] S200: Acquire office status information, establish a continuous monitoring timeline according to the office status information, and set a switching time point in the continuous monitoring timeline. The switching time point divides the continuous monitoring timeline into a closed period and an open period. During the closed period, the lift table maintains a fixed height;

[0067] S300: continuously collecting influencing condition information, and analyzing and processing the influencing condition information during the open period to generate a height adjustment instruction;

[0068] S400: The control terminal drives the motor according to the height adjustment instruction and adjusts the height of the lifting table.

[0069] Specifically, in this embodiment, the control terminal first establishes a communication connection with multiple information devices. The information devices can be, for example, smart bracelets, environmental sensors, health monitoring devices, etc. These devices provide personalized health parameters (such as the user's heart rate, sedentary time, sleep quality) and environmental data information (such as indoor temperature, light intensity, air quality). By establishing a one-way transmission channel, the information device transmits the above-mentioned influencing condition information to the control terminal in real time. The control terminal continuously monitors the user's office status information, including working hours, activity frequency, task type, etc. Based on this information, the system generates a continuous monitoring timeline, which is used to record and analyze the user's work mode. Multiple switching time points are set on the timeline, and the entire timeline is divided into a closed period and an open period. The closed period refers to the time period when the user concentrates on working or is in a specific state. During this period, the height of the lifting table remains unchanged to avoid interfering with the user's work. During the open period, the system allows the height of the lifting table to be adjusted according to the analysis results, and during the open period, the control terminal continues to collect the influencing condition information from the information device. The control terminal sends a control signal to the motor according to the height adjustment instruction generated above to drive the lifting table motor to perform the corresponding height adjustment. For example, when the system detects that the user has been sitting for too long and the environmental conditions are suitable, the height-adjustable desk will automatically rise to standing height to encourage the user to change posture and reduce physical fatigue. In addition, the system can also fine-tune the height of the height-adjustable desk based on the user's personal preferences, health advice and environmental data to achieve optimal working conditions and comfort.

[0070] Through the technical solution of the present invention, individual health parameters and environmental data information are analyzed in real time, and the height of the lifting table is intelligently adjusted to provide a highly personalized working environment, thereby improving the health of users and reducing the risks of sitting for long periods of time, such as cervical and lumbar pain. In addition, by setting the switching time point and fixing the height during the closed period, the method reduces interference at work, improves work efficiency, and saves energy and extends the life of the equipment.

[0071] Specifically, accessing information equipment and establishing a unidirectional transmission channel includes:

[0072] The control terminal establishes an independent unidirectional transmission channel with each information device, and each unidirectional transmission channel only transmits the influencing condition information contained in the corresponding information device;

[0073] The influencing condition information contained in each information device includes multiple information sources, and the information source is single-dimensional data reflecting individual health parameters or environmental data information;

[0074] At each information device end, the influencing condition information is packaged and processed according to the information source, and transmitted to the control terminal through the corresponding unidirectional transmission channel.

[0075] As a preferred embodiment of the above embodiment, the control terminal needs to establish independent unidirectional transmission channels with multiple information devices respectively, which means that there is an exclusive communication path between each information device and the control terminal to ensure that the data transmission is isolated and secure. This configuration helps to prevent data confusion and interference and improve the accuracy and efficiency of data transmission. Each information device contains multiple information sources, which reflect individual health parameters or environmental data information. These information sources may include heart rate monitoring, activity tracking, ambient temperature sensing, humidity sensing, etc., each providing single-dimensional data. At the information device end, the system will independently package the data of each information source. The packaging process includes formatting, compressing and encrypting the data to optimize the data transmission process and ensure the security and integrity of the data during the transmission process. The packaged data is sent to the control terminal through their corresponding unidirectional transmission channels. Since each channel only transmits data from a specific information device, the control terminal can efficiently receive and process data from each channel. After the control terminal receives the data, it then generates appropriate height adjustment instructions for the lifting table based on the received data, and the control terminal evaluates the adjustment needs of the lifting table based on the parsed data. For example, if the health data received shows that the user has not changed his posture for a long time, the system may generate an instruction to increase the height of the lifting desk to encourage the user to stand while working, thereby reducing the health risks caused by long-term sitting. Similarly, environmental data such as indoor temperature and light intensity can also be used to adjust the position of the lifting desk to ensure the user's comfort and work efficiency.

[0076] Further, if Figure 2 As shown, accessing the information device and establishing a unidirectional transmission channel includes:

[0077] S110: establishing a plurality of unidirectional transmission channels, wherein the number of the unidirectional transmission channels is less than the number of information devices, and each unidirectional transmission channel is allowed to be used to transmit influencing condition information from different information devices;

[0078] S120: Packaging the influencing condition information, where the packaging includes uniformly encoding and segmenting the influencing condition information from different information devices;

[0079] S130: Access the transmission status of each unidirectional transmission channel, and allocate the unidirectional transmission channel to the impact condition information after the packetization process according to the transmission status;

[0080] S140: The control terminal parses and combines the segmented and packaged influencing condition information, and restores the influencing condition information of each information device.

[0081] In another embodiment, in this implementation mode, the control terminal does not establish a separate transmission channel for each information device, but establishes multiple shared unidirectional transmission channels. The purpose of this is to improve channel utilization and reduce system complexity. Specifically, each unidirectional transmission channel is allowed to access and transmit data packets based on the busyness of the task. At the information device end, the collected influencing condition information needs to be preprocessed, including unified encoding and segmented packaging. This step is to ensure the security and integrity of the information during transmission, and also facilitates subsequent data transmission and processing. The packaged data is organized into a format that can be transmitted by any available unidirectional transmission channel. The control terminal will monitor the status of each unidirectional transmission channel in real time, including its current load and availability. Based on this information, the control terminal dynamically allocates the most suitable influencing condition information after the packaging process. Appropriate transmission channel. The selection of channel is based on transmission efficiency and channel load balance to ensure the efficiency and timeliness of data transmission. After the control terminal receives the packaged data transmitted through different channels, it will parse and combine the data. This process includes restoring the segmented packaged data to the original influencing condition information of each information device, and through precise data analysis, the accuracy and completeness of the data are ensured, so that the height adjustment instructions of the lifting table can be accurately generated based on the latest and most complete user data. This method reduces the management complexity and cost of the system by reducing the number of required transmission channels. At the same time, through effective channel management and data packaging technology, the efficiency of data transmission is improved. The intelligent allocation and data processing mechanism of the control terminal ensures that the height adjustment of the lifting table can sensitively respond to the user's current needs, whether based on health status or environmental changes.

[0082] Further, if Figure 3 As shown, the control terminal parses and combines the segmented and packaged impact condition information, and restores the impact condition information of each information device, including:

[0083] S141: Calculate the hash value of the segment-packed influencing condition information, where the hash value is used to verify the integrity of the segment-packed influencing condition information during transmission;

[0084] S142: Acquire the address code of the information device of the source of the segmented packaged influencing condition information;

[0085] S143: Add the address code to the hash value to generate a receiving verification code;

[0086] S144: The control terminal identifies and parses the received verification code, combines and restores the influencing condition information through address coding, and verifies the integrity of the restored influencing condition information through hash value.

[0087] On the basis of the above embodiment, after the control terminal receives the influencing condition information of the segmented packaging from the information device, it first performs a hash operation on the information. The hash operation is a function that converts an input of any length into an output of a fixed length. It is used to verify the integrity of the data. A standard hash function is used to ensure that the data has not been tampered with during transmission. The calculated hash value will serve as a fingerprint of the integrity of the segment data. In order to accurately restore the data to the corresponding information device, it is necessary to obtain the address code of the source information device of each segmented packaged data. This address code can be the physical address of the device or any other unique identifier. The address code helps the control terminal identify the source of the data and ensure that the data is processed and restored in the correct context. The control terminal combines the previously calculated hash value with the address code of the source device to generate a receiving verification code. This verification code combines the integrity of the data Fingerprints and their source information provide double protection for data verification and restoration. The generation of check codes can be completed through simple concatenation or other more complex encoding methods. The purpose is to effectively combine hash values ​​and address codes. The control terminal parses the received check codes and extracts the address codes and hash values. Through the address code, the control terminal can associate the received data with specific information devices. Using the extracted hash values, the control terminal verifies the integrity of the restored influencing condition information. If the verification passes, it means that the data has not been tampered with or damaged during transmission, and can be safely used for subsequent data processing and height adjustment of the lifting table. This method enhances the security of the system, ensures the integrity of the data and the accuracy of the source, and makes the adjustment of the lifting table more reliable and precise. In addition, through the automated data verification and restoration process, the possibility of human error is reduced and the operating efficiency of the system is improved.

[0088] Furthermore, during the closed period, the control terminal provides feedback on the influencing condition information transmitted by each information device, including:

[0089] During the closed period of the continuous monitoring time axis, the transmission direction of the unidirectional transmission channel is changed to realize the transmission of feedback information from the control terminal to the information device;

[0090] Classify and process the influencing condition information received during the previous open period before the closed period, and identify the long-term valid information and the continuously changing information as feedback information;

[0091] The information device sets the influencing condition information to be transmitted to the control terminal during the next open period according to the continuous change information, and restores the transmission direction of the unidirectional transmission channel after the closed period ends.

[0092] In this embodiment, during the closed period, the control terminal temporarily changes the direction of the unidirectional transmission channel usually used to receive data from the information device, so that data can be sent from the control terminal to the information device. This change is achieved through software control and network management, ensuring that the direction of channel use can be flexibly adjusted when needed. This change allows the control terminal to feed back the processed and analyzed data to the information device so that the device can adjust its subsequent data collection and transmission behavior based on the feedback. The control terminal classifies the influencing condition information received during the open period before the closed period. The goal of the classification is to distinguish which information is long-term valid and which information needs to be continuously updated. Long-term valid information may include environmental parameters that do not change frequently or fixed health indicators set by the user. This type of information may not need to be updated frequently during multiple open periods, while the continuously changing information includes data that needs to be adjusted in real time according to user behavior or environmental conditions, such as user activity, work intensity, or indoor environmental quality; during the closed period, the control terminal sends the classified feedback information back to the information device through the unidirectional transmission channel with adjusted direction, which allows the information device to understand which data needs to be updated in the next open period and which data can remain unchanged. The feedback mechanism helps the information device optimize its data collection and transmission strategy to ensure that the data transmitted to the control terminal is the most relevant and effective. After the closed period ends, the control terminal restores the direction of the unidirectional transmission channel to its original state so as to receive the updated impact condition information from the information device again in the next open period. By realizing data feedback and temporary changes in channel direction during the closed period, the embodiments of the present invention effectively enhance the adaptability and responsiveness of the system, and the information device optimizes data collection based on the feedback from the control terminal, reduces the transmission of irrelevant data, and improves data processing efficiency.

[0093] This dynamic feedback and channel management mechanism enables the intelligent control system of the lifting table to more accurately adjust the height of the lifting table based on the actual collected data, improve user experience and optimize health management.

[0094] Further, if Figure 4 As shown, during the open period, the influence condition information is analyzed and processed to generate a height adjustment instruction, including:

[0095] S310: classifying the influencing condition information according to the execution priority, including determined item information, pending item information and invalid item information;

[0096] S320: The determined item information is the influencing condition information that directly affects the height of the lifting table, the undetermined item information is the influencing condition information that indirectly affects the height of the lifting table, and the invalid item information is the influencing condition information that has no effect on the height adjustment of the lifting table;

[0097] S330: The control terminal prioritizes processing of the decision item information, and generates necessary height adjustment instructions based on the decision item information, performs secondary analysis on the pending item information, generates height adjustment instructions, adjusts necessary height adjustment instructions to generate height adjustment instructions, and ignores invalid item information.

[0098] In this embodiment, the control terminal first classifies all received influencing condition information. These information are divided into three categories according to their direct impact on the height adjustment of the lifting table: decision item information, pending item information and invalid item information. The decision item information includes data that directly affects the height of the lifting table, such as the user's sedentary time, physical fatigue sensing data, etc. The pending item information is data that indirectly affects the height of the lifting table, such as indoor environmental conditions, the user's general activity level, etc. The invalid item information includes data that has no effect on the height adjustment of the lifting table, such as outdoor weather conditions, activity data during non-working hours, etc. The control terminal prioritizes the decision item information. Based on this information, the control terminal calculates and generates the necessary height adjustment instructions, while the invalid item information will be ignored by the control terminal and will not participate in the generation process of the height adjustment instructions. For the pending item information, the control terminal conducts a more in-depth secondary analysis, which takes into account the indirect impact that this information may have on the user's health and comfort. Based on the results of the secondary analysis, the control terminal may adjust the height adjustment instructions initially generated. This method effectively improves the responsiveness and personalization of the lifting table system, while optimizing resource utilization and reducing unnecessary adjustments.

[0099] Furthermore, a user experience database is built to continuously collect information on influencing conditions, including:

[0100] Collect basic information of common users of lift tables, and build the structural space of user experience database based on the basic information of each common user;

[0101] Connect the user experience database to the user shared experience network, the user shared experience network collects information on influencing conditions in different information devices, and the height adjustment instructions during the corresponding open period;

[0102] Deep learning is performed on the data information in the user experience network to obtain the relationship between the pending information and the height adjustment instructions, and each structural space generates an adjustment memory for the height adjustment instructions.

[0103] As a basis for the above-mentioned embodiments, firstly, the control terminal will collect basic information of frequent users of the lifting table, including but not limited to the user's height, weight, habitual working posture, health status, etc. This information will be used as a basis for building a user experience database. The structural space of the user experience database is constructed based on the basic information of each frequently used user, ensuring that the database can record in detail and adapt to the personalized needs and preferences of each user. The user experience database will be connected to a wide range of user shared experience networks. The purpose of this network is to collect and share information on influencing conditions from different information devices and height adjustment instructions from various users during the open period. In this way, the system can not only learn the data of a single user, but also obtain valuable data and insights from the experience of other users, thereby optimizing the performance of the entire system. The control terminal will use deep learning technology to analyze the large amount of data collected in the user experience network, which includes learning the relationship between pending information and the actual executed height adjustment instructions. Through this deep learning, the system can identify which pending information is eventually transformed into decision information that has a significant impact on height adjustment, thereby adjusting the height adjustment strategy in advance to meet user needs more accurately. In the structural space of each user, the control terminal will generate adjustment memories, which record the generation and execution of height adjustment instructions, as well as the pending information related to them. These adjustment memories will be used for rapid response to similar situations in the future, allowing the system to quickly and accurately adjust the height of the lifting table when encountering similar environments or user states.

[0104] Embodiment 2

[0105] Based on the same inventive concept as the user interactively driven intelligent motor control method for a lifting table in the aforementioned embodiment, the present invention further provides a user interactively driven intelligent motor control system for a lifting table, the system comprising:

[0106] A transmission channel construction module accesses the information device and establishes a one-way transmission channel. The one-way transmission channel transmits the influencing condition information in the information device to the control terminal, wherein the control terminal drives the motor of the lifting table. The influencing condition information includes individual health parameters and environmental data information;

[0107] The office status monitoring module obtains office status information, establishes a continuous monitoring timeline based on the office status information, and sets a switching time point in the continuous monitoring timeline. The switching time point divides the continuous monitoring timeline into a closed period and an open period. During the closed period, the lifting table maintains a fixed height;

[0108] The dispatch instruction generation module continuously collects information on influencing conditions and generates height adjustment instructions by analyzing and processing the information during the open period;

[0109] The height adjustment execution module controls the terminal to drive the motor according to the height adjustment instruction and adjust the height of the lifting table.

[0110] The above-mentioned adjustment system in the present invention can effectively realize the intelligent motor control method of the lifting table driven by user interaction, and the technical effects that can be achieved are as described in the above-mentioned embodiments and will not be repeated here.

[0111] Specifically, the transport channel building blocks include:

[0112] The device channel construction unit controls the terminal to establish an independent unidirectional transmission channel with each information device, and each unidirectional transmission channel only transmits the influencing condition information contained in the corresponding information device;

[0113] The information source division unit includes multiple information sources for the influencing condition information contained in each information device, and the information source is single-dimensional data reflecting individual health parameters or environmental data information;

[0114] The information source packaging unit, at each information device end, packages the influencing condition information according to the information source and transmits it to the control terminal through the corresponding unidirectional transmission channel.

[0115] Specifically, the scheduling instruction generation module includes:

[0116] An information determination and classification unit determines and classifies the influencing condition information according to the execution priority, including decision item information, pending item information and invalid item information;

[0117] The information execution setting unit, the determined item information is the influencing condition information that directly affects the height of the lifting table, the pending item information is the influencing condition information that indirectly affects the height of the lifting table, and the invalid item information is the influencing condition information that has no effect on the height adjustment of the lifting table;

[0118] The height instruction execution unit controls the terminal to prioritize the decision item information, and calculates and generates necessary height adjustment instructions based on the decision item information, performs secondary analysis on the pending item information, generates adjustment height instructions, adjusts the necessary height adjustment instructions to generate height adjustment instructions, and ignores invalid item information.

[0119] Similarly, the above-mentioned optimization schemes for the system can also respectively achieve the optimization effects corresponding to the method in Example 1, which will not be repeated here.

[0120] Although the present application has been described in conjunction with specific features and embodiments thereof, it is obvious that various modifications and combinations may be made thereto without departing from the spirit and scope of the present application. Accordingly, this specification and the accompanying drawings are merely exemplary illustrations of the present application as defined therein, and are deemed to have covered any and all modifications, variations, combinations or equivalents within the scope of the present application. Obviously, a person skilled in the art may make various modifications and variations to the present application without departing from the scope of the present application. Thus, if these modifications and variations of the present application fall within the scope of the present application and its equivalents, the present application is intended to include these modifications and variations.

Claims

1. A user-interactively driven intelligent motor control method for a lifting table, characterized in that: The method comprises: Accessing the information device and establishing a one-way transmission channel, wherein the one-way transmission channel transmits the influencing condition information in the information device to the control terminal, wherein the control terminal drives the motor of the lifting table, and the influencing condition information includes individual health parameters and environmental data information; Acquire office status information, establish a continuous monitoring timeline according to the office status information, and set a switching time point in the continuous monitoring timeline, wherein the switching time point divides the continuous monitoring timeline into a closed period and an open period, and during the closed period, the lifting table maintains a fixed height; During the closed period, the control terminal feeds back the influencing condition information transmitted by each of the information devices, including: During the closed period of the continuous monitoring time axis, the transmission direction of the unidirectional transmission channel is changed to enable the control terminal to transmit feedback information to the information device; Classify and process the influencing condition information received during an open period before the closed period, and identify long-term valid information and continuously changing information as the feedback information; The information device sets the influencing condition information to be transmitted to the control terminal during the next open period according to the continuous change information, and restores the transmission direction of the unidirectional transmission channel after the closed period ends; Continuously collecting the influencing condition information, and analyzing and processing the influencing condition information during the open period to generate a height adjustment instruction; The control terminal drives the motor according to the height adjustment instruction and adjusts the height of the lifting table.

2. The user interaction driven intelligent motor control method for a lifting table according to claim 1, characterized in that: Access information equipment and establish a one-way transmission channel, including: The control terminal establishes an independent unidirectional transmission channel with each of the information devices, and each of the unidirectional transmission channels only transmits the influencing condition information contained in the corresponding information device; The influencing condition information contained in each of the information devices includes multiple information sources, and the information sources are single-dimensional data reflecting the individual health parameters or environmental data information; At each of the information equipment terminals, the influencing condition information is packaged and processed respectively according to the information source, and transmitted to the control terminal through the corresponding unidirectional transmission channel.

3. The user interaction driven intelligent motor control method for a lifting table according to claim 1, characterized in that: Access information equipment and establish a one-way transmission channel, including: Establishing a plurality of unidirectional transmission channels, wherein the number of the unidirectional transmission channels is less than the number of the information devices, and each of the unidirectional transmission channels is allowed to be used to transmit the influencing condition information from different information devices; Packaging the influencing condition information, wherein the packaging includes uniformly encoding and segmented packaging of the influencing condition information from different information devices; Accessing the transmission status of each of the unidirectional transmission channels, and allocating the unidirectional transmission channel to the impact condition information after the packetization process according to the transmission status; The control terminal parses and combines the segmented and packaged influencing condition information, and restores the influencing condition information of each information device.

4. The user interaction driven intelligent motor control method for a lifting table according to claim 3, characterized in that: The control terminal parses and combines the segmented and packaged impact condition information to restore the impact condition information of each information device, including: Calculating a hash value of the influencing condition information packaged in segments, wherein the hash value is used to verify the integrity of the influencing condition information packaged in segments during transmission; Obtaining the address code of the information device of the source of the influencing condition information packaged in segments; Adding the address code to the hash value to generate a receiving verification code; The control terminal identifies and parses the received verification code, combines and restores the influencing condition information through the address code, and verifies the integrity of the restored influencing condition information through the hash value.

5. The user interaction driven intelligent motor control method for a lifting table according to claim 1, characterized in that: Analyzing and processing the influencing condition information during the open period to generate a height adjustment instruction includes: Determine and classify the influencing condition information according to execution priority, including determined item information, pending item information and invalid item information; The determined item information is the influencing condition information that directly affects the height of the lifting table, the pending item information is the influencing condition information that indirectly affects the height of the lifting table, and the invalid item information is the influencing condition information that has no effect on the height adjustment of the lifting table; The control terminal processes the decision item information preferentially, and calculates and generates necessary height adjustment instructions according to the decision item information; Perform secondary analysis on the pending item information to generate a height adjustment instruction, and adjust the necessary height adjustment instruction to generate the height adjustment instruction; Ignore the invalid item information.

6. The user interaction driven intelligent motor control method for a lifting table according to claim 5, characterized in that: Construct a user experience database to continuously collect the influencing condition information, including: Collecting basic information of frequent users of the lift table, and building a structural space of the user experience database based on the basic information of each frequent user; Connecting the user experience database to a user shared experience network, wherein the user shared experience network collects influencing condition information in different information devices and height adjustment instructions corresponding to the open period; Deep learning is performed on the data information in the user shared experience network to obtain the relationship between the pending item information and the height adjustment instruction, and each of the structure spaces generates an adjustment memory for the height adjustment instruction.

7. The user-interaction-driven intelligent motor control system for a lifting table is characterized by: The user interaction driven intelligent motor control method for a lifting table according to claim 1 is adopted, and the system comprises: A transmission channel building module, accessing the information device and establishing a one-way transmission channel, wherein the one-way transmission channel transmits the influencing condition information in the information device to the control terminal, wherein the control terminal drives the motor of the lifting table, and the influencing condition information includes individual health parameters and environmental data information; A module for monitoring office status, obtaining office status information, establishing a continuous monitoring timeline according to the office status information, and setting a switching time point on the continuous monitoring timeline, wherein the switching time point divides the continuous monitoring timeline into a closed period and an open period, and during the closed period, the lifting table maintains a fixed height; a scheduling instruction generation module, which continuously collects the influencing condition information, and analyzes and processes the influencing condition information during the open period to generate a height adjustment instruction; A height adjustment execution module, wherein the control terminal drives the motor according to the height adjustment instruction and adjusts the height of the lifting table.

8. The user-interaction-driven intelligent motor control system for a lifting table according to claim 7, characterized in that: The transmission channel building module comprises: A device channel construction unit, wherein the control terminal establishes an independent unidirectional transmission channel with each of the information devices, and each of the unidirectional transmission channels only transmits the influencing condition information contained in the corresponding information device; An information source division unit, wherein the influencing condition information contained in each of the information devices includes a plurality of information sources, and the information sources are single-dimensional data reflecting the individual health parameter or environmental data information; The information source packaging unit packages the influencing condition information according to the information source at each information device end, and transmits it to the control terminal through the corresponding unidirectional transmission channel.

9. The user-interaction-driven intelligent motor control system for a lifting table according to claim 7, characterized in that: The scheduling instruction generation module comprises: An information determination and classification unit determines and classifies the influencing condition information according to execution priority, including determined item information, pending item information and invalid item information; An information execution setting unit, wherein the determined item information is the influencing condition information that directly affects the height of the lifting table, the pending item information is the influencing condition information that indirectly affects the height of the lifting table, and the invalid item information is the influencing condition information that has no effect on the height adjustment of the lifting table; The height instruction execution unit, the control terminal prioritizes the decision item information, and calculates and generates necessary height adjustment instructions based on the decision item information, performs secondary analysis on the pending item information, generates adjustment height instructions, adjusts the necessary height adjustment instructions to generate the height adjustment instructions, and ignores the invalid item information.

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