Information interaction system and method suitable for mixed team self-distinguishing

Abstract

The invention provides an information interaction system and method suitable for hybrid team self-distinguishing, and the system comprises a queue instruction issuing and broadcasting module which is used for carrying out the central instruction node setting and timing broadcasting; and the individual positioning and confirming module is used for carrying out self-positioning and accurate confirmation. According to the technical scheme, the overall effect of team cooperation is improved, and powerful support is provided for smooth completion of various tasks.

Description

Background Art

[0002] Although existing technical solutions have their advantages in team collaboration and information exchange, they also have some obvious disadvantages, mainly including the following aspects:

[0003] 1. Centralized command system:

[0004] Single point of failure: If the central control node fails, the entire system may fail, resulting in the inability to transmit instructions;

[0005] Network congestion: In a large-scale team, the central node needs to process a large number of instructions and requests, which can easily cause network congestion and delays;

[0006] Lack of flexibility: Insufficient support for individual response speed and independent decision-making capabilities limits the team's ability to respond flexibly.

[0007] 2. Distributed collaboration platform:

[0008] Information redundancy: Since individuals can send information autonomously, it may lead to information duplication and conflict, increasing the complexity of communication;

[0009] In the absence of central control, the difficulty of coordinating and integrating instructions increases, which may affect the overall efficiency of the mission.

[0010] 3. Location-based services (LBS):

[0011] Positioning accuracy issues: GPS signals may be unstable indoors or in complex environments, affecting positioning accuracy and reducing the effectiveness of command delivery;

[0012] Privacy and security: The collection and use of location data may lead to privacy leaks, and security measures need to be strengthened.

[0013] 4. Virtual Reality (VR) and Augmented Reality (AR) Collaboration:

[0014] High cost and technical requirements: Implementation of these technologies requires expensive equipment and a high level of technical support, increasing project costs.

[0015] Barriers to use: Not all members are proficient in VR / AR technology, which may lead to reduced participation and poor communication.

[0016] 5. Asynchronous communication based on message queue:

[0017] Latency: Information transmission is asynchronous, which may cause information lag and affect real-time performance, especially in situations where a quick response is required.

[0018] Message loss risk: Message loss may occur during the message transmission process, affecting the effective execution of instructions.

[0019] 6.Secure encryption protocol:

[0020] Computational overhead: The encryption and decryption process requires additional computing resources, which may affect the performance of the system, especially in high concurrency situations;

[0021] Implementation complexity: Setting up and managing encryption mechanisms can be complex and require specialized knowledge, increasing technical barriers.

[0022] In general, the deficiencies of existing technologies in terms of flexibility, security, and real-time performance limit their application efficiency in complex team collaboration. Summary of the invention

[0023] The present application provides an information interaction system and method suitable for self-differentiation of mixed teams, so as to improve the overall efficiency and effectiveness of team collaboration.

[0024] In a first aspect, an information interaction system suitable for self-differentiation of a mixed team is provided, comprising:

[0025] Queue instruction issuance and broadcast module, used for central instruction node setting and timed broadcasting;

[0026] Individual positioning and confirmation module, used for each individual to perform self-positioning and accurate position confirmation, which means obtaining one's absolute position by relying on the positioning module or device that comes with it;

[0027] The information interaction system suitable for self-differentiation of mixed teams only sets a single instruction issuance node for broadcasting all instructions required at a specific time; the instruction information differentiates tasks in different encryption modes for individuals in different areas, and broadcasts instruction information carrying all encryption keys at the same time; all users have the ability to obtain their absolute position by relying on their own positioning modules or devices, and after receiving the instruction information, they parse and execute corresponding instruction operations according to their own positions or groups; the first position or the first group is associated with the first encryption key, and the second position or the second group is associated with the second encryption key.

[0028] In the above technical solution, a queue instruction issuance and broadcast module is set up to perform central instruction node setting and timed broadcasting; an individual positioning and confirmation module is used for self-positioning and accurate confirmation; this not only improves the overall effect of team collaboration, but also provides strong support for the smooth completion of various tasks.

[0029] In a specific implementation scheme, a secure encryption and decryption module in combination with location information is used to perform encryption mechanism settings and instruction decryption, including:

[0030] At the first time, an encryption key carrying the location restriction condition is sent to the individual. The encryption key is pre-stored, and the broadcast instruction uses different keys to encrypt information of different areas; at the second time, after receiving the information, each individual first obtains the location information in the instruction information of the area where he is located in the designated area, and then decrypts the real content of the instruction according to the key content known in advance; the first location information corresponds to the first encryption key, and the second location information corresponds to the second encryption key. The exclusive first information in the broadcast instruction is obtained by the first encryption key, and the exclusive second information in the broadcast instruction is obtained by the second encryption key;

[0031] Alternatively, the location information is replaced with different groups, each of which has a specific instruction storage field and encryption method, so that each group can act independently under a single broadcast signaling.

[0032] In a specific embodiment, it also includes:

[0033] Dynamic position and group transformation module, used to set active transformation mechanism and feedback mechanism; including:

[0034] When an individual changes position or group during team collaboration, he or she spontaneously initiates an identity change; the spontaneous identity change requires three confirmations from a single queue instruction issuing node from the instruction issuing node to the individual, including the first confirmation at the first time, which is the instruction issuing node asking the individual whether the individual has left the original position, the second confirmation at the second time, which is the instruction issuing node asking the individual whether the individual has entered a new position or group, that is, the position or group information, and the third confirmation at the third time, which is the instruction issuing node asking the individual to repeatedly confirm the new position or group information; the third confirmation is used to ensure that no erroneous instructions are sent and that greater group confusion is not caused; at the fourth time, after the three confirmed instructions are responded to, the position change is completed.

[0035] In a second aspect, a method for information interaction applicable to self-differentiation of a hybrid team is provided, comprising the following steps:

[0036] Use the queue instruction issuance and broadcast module to set the central instruction node and broadcast it at a scheduled time;

[0037] Each individual uses the individual positioning and confirmation module to perform self-positioning and accurate confirmation; including:

[0038] Only a single instruction issuing node is set up to broadcast all instructions required at a specific time; the instruction information is divided into tasks with different encryption modes for individuals in different areas; after receiving the instruction information, all users perform corresponding instruction operations according to their own positions; the first position or the first group is associated with the first encryption key, and the second position or the second group is associated with the second encryption key;

[0039] The self-positioning and accurate confirmation refer to obtaining one's own absolute position by relying on a self-contained positioning module or device.

[0040] In the above technical solution, a queue instruction issuance and broadcast module is set up to perform central instruction node setting and timed broadcasting; an individual positioning and confirmation module is used for self-positioning and accurate confirmation; this not only improves the overall effect of team collaboration, but also provides strong support for the smooth completion of various tasks.

[0041] In a specific embodiment, it also includes:

[0042] Use the secure encryption and decryption module combined with location information to set up encryption mechanisms and decrypt instructions, including:

[0043] An encryption key of the individual's location is sent in advance, and the encryption key is pre-stored. At the same time, the broadcast instructions use different keys to encrypt information in different areas. After receiving the information, each individual first goes to the designated area to obtain the instruction information of the area where he is located, and then decrypts the real content of the instruction based on the key content known in advance. The location information can be replaced by different groups, each of which has a specific instruction storage field and encryption method, so as to realize independent actions of each group under a single broadcast signal.

[0044] In a specific embodiment, it also includes:

[0045] Use dynamic position and group transformation modules to set active transformation mechanisms and feedback mechanisms; including:

[0046] When an individual changes position or group during team collaboration, he or she spontaneously initiates an identity change; spontaneous identity change requires three confirmations from a single queue command issuing node. The first confirmation is to leave the original position or group and inquire about the next position or group, the second confirmation is to enter the new position or group, and the third confirmation is to repeat the confirmation of the new position or group information; the third confirmation is used to ensure that no erroneous instructions are issued and cause greater group confusion. BRIEF DESCRIPTION OF THE DRAWINGS

[0047] Figure 1 A structural block diagram of an information interaction system suitable for self-differentiation of mixed teams provided in an embodiment of the present application;

[0048] Figure 2 A flowchart of an information interaction method suitable for self-differentiation of a mixed team provided in an embodiment of the present application. DETAILED DESCRIPTION

[0049] The present application is further described in detail below through the accompanying drawings and embodiments. Through these descriptions, the characteristics and advantages of the present application will become clearer and more specific.

[0050] The word "exemplary" is used exclusively herein to mean "serving as an example, embodiment, or illustration." Any embodiment described herein as "exemplary" is not necessarily to be construed as preferred or advantageous over other embodiments. Although various aspects of the embodiments are shown in the drawings, the drawings are not necessarily drawn to scale unless otherwise noted.

[0051] In addition, the technical features involved in different embodiments of the present application described below can be combined with each other as long as they do not conflict with each other.

[0052] To facilitate understanding of the information interaction system and method for self-differentiation of mixed teams provided in the embodiments of the present application, its application scenario is first explained. The information interaction system and method for self-differentiation of mixed teams provided in the embodiments of the present application are used to improve the overall efficiency and effectiveness of team collaboration. Although the existing technical solutions have their advantages in team collaboration and information interaction, they also have some obvious disadvantages, mainly including the following aspects: 1. Centralized command system: single point failure: if the central control node fails, the entire system may fail, resulting in the inability to convey commands; network congestion: in a large-scale team, the central node needs to process a large number of commands and requests, which can easily cause network congestion and delays; lack of flexibility: insufficient support for individual response speed and autonomous decision-making ability, limiting the team's flexible response capabilities. 2. Distributed collaboration platform: information redundancy: since individuals can send information autonomously, information duplication and conflict may occur, increasing the complexity of communication; in the absence of central control, the difficulty of coordinating and integrating commands increases, which may affect the overall efficiency of the task. 3. Location-based services (LBS): Positioning accuracy issues: GPS signals may be unstable indoors or in complex environments, affecting positioning accuracy and reducing the effectiveness of instruction delivery; Privacy and security: The collection and use of location data may cause privacy leaks, and security measures need to be strengthened. 4. Virtual reality (VR) and augmented reality (AR) collaboration: High cost and technical requirements: The implementation of these technologies requires expensive equipment and high-level technical support, which increases project costs. Use barriers: Not all members are proficient in VR / AR technology, which may lead to reduced participation and poor communication. 5. Asynchronous communication based on message queues: Latency: The transmission of information is asynchronous, which may cause information lag and affect real-time performance, especially in situations where rapid response is required. Message loss risk: Messages may be lost during message transmission, affecting the effective execution of instructions. 6. Secure encryption protocol: Computational overhead: The encryption and decryption process requires additional computing resources, which may affect the performance of the system, especially in high concurrency situations; Implementation complexity: Setting up and managing encryption mechanisms may be complex, requiring professional knowledge, and increasing technical barriers. In general, the deficiencies of existing technologies in terms of flexibility, security, and real-time performance limit their application efficiency in complex team collaboration. To this end, the present application embodiment provides an information interaction system and method suitable for self-differentiation of mixed teams to improve the overall efficiency and effect of team collaboration. The following is a detailed description of the embodiment in conjunction with specific drawings.

[0053] refer to Figure 1 and Figure 2 , Figure 1 A structural block diagram of an information interaction system suitable for self-differentiation of mixed teams provided in an embodiment of the present application; Figure 2A flowchart of an information interaction method suitable for self-differentiation of a mixed team provided in an embodiment of the present application.

[0054] exist Figure 1 In the embodiment of the present application, a system for information interaction suitable for self-differentiation of mixed teams is provided, including:

[0055] Queue instruction issuance and broadcast module, used for central instruction node setting and timed broadcasting;

[0056] Individual positioning and confirmation module, used for each individual to perform self-positioning and accurate position confirmation, which means obtaining one's absolute position by relying on the positioning module or device that comes with it;

[0057] The information interaction system suitable for self-differentiation of mixed teams only sets a single instruction issuance node for broadcasting all instructions required at a specific time; the instruction information differentiates tasks in different encryption modes for individuals in different areas, and broadcasts instruction information carrying all encryption keys at the same time; all users have the ability to obtain their absolute position by relying on their own positioning modules or devices, and after receiving the instruction information, they parse and execute corresponding instruction operations according to their own positions or groups; the first position or the first group is associated with the first encryption key, and the second position or the second group is associated with the second encryption key.

[0058] In the above technical solution, a queue instruction issuance and broadcast module is set up to perform central instruction node setting and timed broadcasting; an individual positioning and confirmation module is used for self-positioning and accurate confirmation; this not only improves the overall effect of team collaboration, but also provides strong support for the smooth completion of various tasks.

[0059] In a specific implementation scheme, a secure encryption and decryption module in combination with location information is used to perform encryption mechanism settings and instruction decryption, including:

[0060] At the first time, an encryption key carrying the location restriction condition is sent to the individual. The encryption key is pre-stored, and the broadcast instruction uses different keys to encrypt information of different areas; at the second time, after receiving the information, each individual first obtains the location information in the instruction information of the area where he is located in the designated area, and then decrypts the real content of the instruction according to the key content known in advance; the first location information corresponds to the first encryption key, and the second location information corresponds to the second encryption key. The exclusive first information in the broadcast instruction is obtained by the first encryption key, and the exclusive second information in the broadcast instruction is obtained by the second encryption key;

[0061] Alternatively, the location information is replaced with different groups, each of which has a specific instruction storage field and encryption method, so that each group can act independently under a single broadcast signaling.

[0062] In a specific embodiment, it also includes:

[0063] Dynamic position and group transformation module, used to set active transformation mechanism and feedback mechanism; including:

[0064] When an individual changes position or group during team collaboration, he or she spontaneously initiates an identity change; the spontaneous identity change requires three confirmations from a single queue instruction issuing node from the instruction issuing node to the individual, including the first confirmation at the first time, which is the instruction issuing node asking the individual whether the individual has left the original position, the second confirmation at the second time, which is the instruction issuing node asking the individual whether the individual has entered a new position or group, that is, the position or group information, and the third confirmation at the third time, which is the instruction issuing node asking the individual to repeatedly confirm the new position or group information; the third confirmation is used to ensure that no erroneous instructions are sent and that greater group confusion is not caused; at the fourth time, after the three confirmed instructions are responded to, the position change is completed.

[0065] In a specific embodiment, it also includes:

[0066] The security encryption and decryption module is used to set up encryption mechanisms and decrypt instructions.

[0067] In a specific embodiment, it also includes:

[0068] The autonomous mobility and task execution module is used for guided navigation and task execution.

[0069] In a specific embodiment, it also includes:

[0070] The dynamic position and group transformation module is used to set up active transformation mechanism and feedback mechanism.

[0071] In a specific embodiment, it also includes:

[0072] Real-time monitoring and optimization module for status monitoring and feedback loops.

[0073] Specifically, the information interaction system suitable for self-differentiation of mixed teams proposes an information interaction method suitable for self-differentiation of mixed teams. In the queue collaboration of multiple individuals, a single queue instruction issuing node is set, and each individual is an instruction receiving node. Each individual has built-in preset position information and can determine whether its own position is correct through GPS / Beidou positioning capabilities, and guide the individual to move to the correct position through guidance information. Each individual can distinguish the position. In the queue interaction, considering that the equipment sending signals often has a problem of high power consumption, only a single high-power instruction issuing node is set, which broadcasts all the instructions required for a specific time. The instruction information distinguishes different tasks for individuals in different areas. After all users receive the information, they perform corresponding instruction operations according to their own positions.

[0074] Furthermore, taking security issues into consideration, the present application sets up an encryption method combined with location information, that is, an encryption key of the individual's own location is sent in advance, and the key is pre-stored. At the same time, the broadcast instructions use different keys to encrypt information in different areas. In this way, after each individual receives the information, he first goes to the designated area to obtain the instruction information of his area, and then decrypts the true content of the instruction based on the previously known key content.

[0075] Furthermore, this location information can be replaced by different groups, and each group has a specific instruction storage field and encryption method to achieve independent actions for each group under a single broadcast signaling.

[0076] Furthermore, the present application also proposes an access method for actively changing positions or groups. When an individual changes positions or groups during team collaboration, he or she spontaneously initiates an identity change. To ensure the timeliness of the interaction, the spontaneous identity change requires three confirmations from a single queue command issuing node. The first confirmation is to leave the original position or group and inquire about the next position or group, the second confirmation is to enter the new position or group, and the third confirmation is to repeat the confirmation of the new position or group information. The purpose of the third confirmation is to ensure that no erroneous instructions are sent to cause greater group confusion. In this way, a self-differentiated information interaction method for mixed teams can be achieved to achieve more efficient command interaction.

[0077] Specifically include:

[0078] 1. Queue instruction issuance and broadcast module

[0079] Central command node setting: Set up a powerful command issuing node in the team, which is responsible for broadcasting command information regularly according to task requirements. This node is similar to the "heart of command" and can transmit information in a timely and accurate manner.

[0080] Scheduled broadcast: The node packages the command information and broadcasts it at a specific frequency to ensure that each individual can receive the latest command within its activity area.

[0081] 1.1 Central Command Node

[0082] In the present invention, the central command node is the core component of the system and plays a key role in information transmission and coordination. It has the following important features:

[0083] 1.1.1 Powerful computing capability: The central command node is equipped with efficient processors and memory, which can quickly analyze and process large amounts of command information to ensure the timeliness and accuracy of command issuance.

[0084] 1.1.2 Task demand analysis: Based on the actual work needs and task dynamics of the team, the central node can intelligently identify and generate appropriate instruction information. For example, when the team performs different tasks (such as rescue, patrol, delivery, etc.), the central node will generate corresponding instructions based on the nature of the task and the current environment.

[0085] 1.1.3 Data aggregation and decision support: The central node can obtain feedback data from each individual, such as the individual's current location, task completion status, etc., so as to conduct real-time analysis and optimize the content of instructions. Based on this data, the central node can adjust the instruction strategy and improve the work efficiency of the overall team.

[0086] 1.2 Scheduled broadcast

[0087] Scheduled broadcast is an important way for the central command node to issue instructions to team members. The process includes the following key links:

[0088] 1.2.1 Instruction Packaging: After generating an instruction, the central node packages the relevant information. This process includes summarizing and organizing the instruction content, target location, time requirements for executing the task, and other information to form a complete instruction package.

[0089] 1.2.2 Broadcast frequency setting: The central node sets an appropriate broadcast frequency according to the team's work rhythm and the urgency of the task. For example, in a high-intensity work environment, a higher frequency of broadcasting may be required to ensure timely communication of information; while in routine tasks, a lower broadcast frequency can be set to avoid duplication and redundancy of information.

[0090] 1.2.3 Coverage area optimization: During the broadcast process, the central node will adjust the signal transmission power and direction according to the individual's location and activity range to ensure that each individual can receive the latest instructions within its activity area. This mechanism can avoid information transmission failure caused by weak signals or interference.

[0091] 1.2.3 Support for multiple communication protocols: In order to adapt to different working environments and equipment, the central node can support multiple communication protocols, such as Wi-Fi, Bluetooth, LoRa, etc., to ensure effective information transmission in different situations.

[0092] 1.2.4 Instruction confirmation mechanism: After receiving the instruction, the individual needs to provide feedback confirmation to ensure the accurate transmission of the information. The central node will record the feedback status of each individual and adjust the subsequent instruction strategy and content based on the feedback.

[0093] 2. Individual positioning and confirmation module

[0094] Self-positioning: Each team member has a built-in positioning module (such as GPS / Beidou) to confirm their own location in real time. Through location data, individuals can quickly determine whether they are at the location specified by the instruction after receiving the instruction.

[0095] Accurate confirmation: After receiving the command, the individual will first confirm its position to ensure that it is in the correct position. If the confirmation fails, the individual will be directed to the correct position.

[0096] In this application, the individual positioning and confirmation mechanism is an important part to ensure the accuracy of information exchange and task execution. It achieves efficient positioning and confirmation functions through the following two key links:

[0097] 2.1 Self-positioning

[0098] 2.1.1 Built-in positioning module: Each team member is equipped with a high-precision positioning module, such as GPS (Global Positioning System) or Beidou Satellite Navigation System. These modules can obtain individual geographic location data in real time, including longitude, latitude and altitude information.

[0099] 2.1.2 Real-time data update: The positioning module not only provides real-time data of the individual's current location, but also regularly updates the location information. By setting a reasonable update frequency (for example, every second or every minute), the individual can continuously monitor his or her movement trajectory to ensure that the location changes are accurately reflected in a dynamic environment.

[0100] 2.1.3 Position data processing: The individual's device will process the acquired position information and calculate the difference between the current position and the position specified in the instruction. If the current position information is consistent with the position required by the instruction, the individual will be able to confirm whether he is in the correct position in time.

[0101] 2.1.4 Environmental adaptability: In different environments (such as indoors, in urban canyons, in mountainous areas, etc.), individual positioning modules can choose different positioning methods. For example, in an environment with weak GPS signals, Wi-Fi, Bluetooth or other sensor data can be combined for position compensation to improve positioning accuracy.

[0102] 2.2 Accurate confirmation

[0103] 2.2.1 Self-location confirmation mechanism: After receiving the command from the central command node, the individual will first confirm its own location. The device will compare the current positioning data with the target location specified in the command. If the match is successful, the individual can perform the task with peace of mind.

[0104] 2.2.2 Confirmation Failure Handling: If the self-position confirmation fails (for example, the individual fails to locate the position specified by the instruction), the system will start the error handling mechanism. This mechanism includes the following steps:

[0105] 2.2.3 Position Correction Guidance: The individual’s device will automatically calculate the direction and distance to be moved, and guide the individual to the correct location through navigation functions (such as voice instructions or graphical interfaces). This method can provide the individual with a clear movement route and improve their movement efficiency.

[0106] 2.2.4 Real-time update of positioning information: During the movement of the individual, the positioning module will continuously update the location information to ensure that the individual always stays on the correct navigation path.

[0107] 2.2.5 Feedback mechanism: After the individual moves to the correct position, it will feedback confirmation information to the central command node. This feedback not only ensures the execution effect of the command, but also provides data basis for subsequent command adjustments.

[0108] 2.2.6 Security of location confirmation: In order to ensure the security of self-location confirmation, individual devices can integrate multiple authentication mechanisms (such as passwords, biometrics, etc.) to ensure that the acquisition and execution of command information are completed by legitimate users and prevent unauthorized operations.

[0109] 3. Security encryption and decryption module

[0110] Encryption mechanism setting: During the command broadcast process, the information is encrypted by combining the individual's location information and the pre-stored encryption key. The instructions of each area use different keys to ensure the security of the information.

[0111] Instruction decryption: After receiving a broadcast instruction, an individual first decrypts it using his existing encryption key to obtain the true instruction content, thereby ensuring that only authorized individuals can obtain and execute specific tasks.

[0112] In the present invention, the secure encryption and decryption mechanism is an important means to ensure that the instruction information is not stolen or tampered with during the transmission process. This mechanism achieves information security through the following two core links:

[0113] 3.1 Encryption Mechanism

[0114] 3.1.1 Multi-level encryption design: During the instruction broadcast process, the central instruction node will use multi-level encryption methods based on the individual's location and specific instruction content. For example, combining symmetric encryption and asymmetric encryption technology to ensure the security and efficiency of information.

[0115] 3.1.2 Location-based encryption key: Each individual is assigned a pre-stored encryption key when the system is initialized. This key is closely combined with the individual's location information, so that instructions in each area are encrypted with a different key. This strategy not only enhances the security of information transmission, but also reduces the security risks caused by key leakage.

[0116] 3.1.3 Dynamic key update: To further enhance the security of the system, the central node can regularly update the encryption key, especially when a security incident or attack occurs. This dynamic update mechanism ensures that even if a key is cracked, the overall security of the system is still guaranteed.

[0117] 3.1.4 Encryption algorithm selection: The present invention can support multiple encryption algorithms, such as AES (Advanced Encryption Standard), RSA (asymmetric encryption algorithm), etc., to cope with devices with different security requirements and computing capabilities. This allows the system to take into account both flexibility and security.

[0118] 3.2 Instruction Decryption

[0119] 3.2.1 Command Reception and Preliminary Verification: When an individual receives a broadcast command from a central command node, it will first perform a preliminary verification of the received information. This process ensures that the command comes from a legitimate central node to prevent man-in-the-middle attacks.

[0120] 3.2.2 Decryption process: The individual device uses the pre-stored encryption key to decrypt the received command. The decryption process includes the following steps:

[0121] 3.2.3 Key application: An individual first loads the encryption key corresponding to its location information.

[0122] 3.2.4 Decryption of instruction content: Using the loaded key, the individual decrypts the received instruction information and obtains the real instruction content.

[0123] 3.2.5 Error handling mechanism: During the decryption process, if a key mismatch or decryption failure occurs, the individual will trigger an error handling mechanism, such as re-requesting instructions or performing identity authentication to ensure the accuracy and security of the information.

[0124] 3.2.6 Authorized execution: After successful decryption, the individual will perform subsequent operations based on the actual instruction content obtained to ensure that only authorized individuals can perform specific tasks. This process is monitored through the authority management mechanism to further ensure the security of task execution.

[0125] In general, the secure encryption and decryption mechanism provides strong protection for the secure transmission of command information, which not only improves the security of information interaction, but also provides important support for the overall collaboration efficiency of the team.

[0126] 4. Autonomous mobility and task execution module

[0127] Guided navigation: After receiving the correct instructions, the individual can move to the specified location autonomously according to the location information and guidance in the instructions, and prepare to perform the task.

[0128] Task execution: After the individual is at the designated location, he or she performs corresponding operations according to the instructions to ensure the smooth progress of the task.

[0129] In the present invention, the autonomous movement and task execution mechanism enables individuals to flexibly move positions and perform task operations according to the content of the instructions after receiving the instructions. The mechanism is divided into two main links: guided navigation and task execution.

[0130] 4.1 Navigation Guide

[0131] 4.1.1 Instruction content analysis: After receiving the instruction broadcast by the central instruction node, the individual first analyzes the instruction content. The analysis content includes key information such as target location, moving path, estimated time, task priority, etc.

[0132] 4.1.2 Real-time positioning update: The individual's positioning module (such as GPS / Beidou) will continuously obtain the current position and compare it with the target position specified in the instruction. This process ensures that the individual can always track its own movement trajectory and make adjustments based on real-time data.

[0133] 4.1.3 Navigation system support: Individuals will use the built-in navigation system (such as map applications, voice navigation, etc.) to obtain the best path to the target location. The navigation system will take into account factors such as terrain, traffic, obstacles, etc. to provide individuals with clear movement routes and navigation instructions.

[0134] 4.1.4 Mobility mode selection: Individuals can choose the appropriate mode of movement according to the environment and the nature of the task, such as walking, cycling, driving, etc. The system will provide corresponding mobility solutions based on the urgency of the task and the individual's available means of transportation.

[0135] 4.1.5 Path Optimization: During the navigation process, individual devices will update path information in real time, taking into account possible traffic conditions, obstacles and other factors, and dynamically adjust the movement route to ensure that the target location can be reached quickly and safely.

[0136] 4.2 Task Execution

[0137] 4.2.1 Arrival location confirmation: When the individual is moving, the device will continuously monitor its current location. When the individual approaches the location specified by the command, the system will confirm the location to ensure that the individual has accurately arrived at the target location.

[0138] 4.2.2 Reconfirmation of instruction content: After reaching the target location, the individual's device will display the instruction content again and confirm it. This mechanism ensures that the individual is clear about the specific tasks he needs to perform and avoids erroneous operations caused by misreading information.

[0139] 4.2.3 Task operation execution: According to the instruction content, the individual will start to perform the corresponding operation. This process may include:

[0140] 4.2.4 Task step execution: The individual performs the task according to the steps in the instructions, ensuring that each step can be completed effectively. For example, in a rescue mission, the individual may need to perform equipment inspections, environmental assessments, etc. according to instructions.

[0141] 4.2.5 Real-time feedback and recording: During the execution of the task, individuals will record the progress and results of the task in real time and regularly feedback information to the central command node. This feedback mechanism ensures the transparency and traceability of the task, and provides data basis for the adjustment of subsequent instructions.

[0142] 4.2.6 Task completion confirmation: After the task is completed, the individual will send a completion confirmation message to the central command node through the device. At this time, the system will update the task status and optimize subsequent instructions based on the actual completion status.

[0143] 5. Dynamic position and grouping transformation module

[0144] Active change mechanism: If individuals need to change their position or group, they will actively initiate an identity change request. This process requires a three-time confirmation mechanism from the central command node to ensure the validity of the change.

[0145] First confirmation: confirm that the individual has left the original position or group and inquire about the new target position or group.

[0146] Second confirmation: Confirmation of individuals entering new positions or groups.

[0147] Third confirmation: Repeat confirmation of the new location information to prevent confusion caused by misoperation.

[0148] Feedback mechanism: After confirmation, the individual will receive new instruction information and continue to participate in team collaboration.

[0149] In the present invention, the dynamic position and grouping transformation mechanism provides flexibility and autonomy for individuals in teamwork, ensuring that members can adjust their positions or groups according to task requirements and real-time conditions. The mechanism consists of two key parts: an active transformation mechanism and a feedback mechanism.

[0150] 5.1 Active transformation mechanism

[0151] 5.1.1 Identity change request: When an individual needs to change position or group during the execution of a task, he or she can actively initiate an identity change request. This request can be sent through the device interface to ensure that the individual can adjust the position or group in time when necessary.

[0152] 5.1.2 Three-time confirmation mechanism of the central command node: In order to ensure the effectiveness and accuracy of the transformation, individual requests must be confirmed three times by the central command node. This mechanism effectively avoids confusion caused by misoperation and ensures smooth team collaboration.

[0153] 5.1.3 First confirmation:

[0154] Leaving the original position or group: When making a request, the individual first needs to confirm their intention to the central command node, indicating that they are about to leave their current position or group.

[0155] Asking for new target location or grouping: The central command node will ask the individual for its new target location or grouping information. This process ensures that the individual has clear guidance on the next action.

[0156] 5.1.4 Second confirmation:

[0157] Confirm entry into a new location or group: Once an individual provides new target information, the central command node will confirm it to ensure that the individual has successfully entered the designated new location or group. This process includes real-time monitoring of individual location updates to ensure data accuracy.

[0158] 5.1.5 Third confirmation:

[0159] Repeat confirmation of new location information: After an individual enters a new location or group, the system will confirm the individual's new location information again. The purpose of this step is to prevent confusion caused by misoperation and ensure that individuals are always in the correct location and group during team collaboration.

[0160] 5.2 Feedback Mechanism

[0161] 5.2.1 Information transmission after confirmation: After three confirmations, the individual will receive new instruction information from the central instruction node. These instructions will reflect the individual's new position and grouping requirements to ensure that the individual is clear about his or her next task.

[0162] 5.2.2 Continue to participate in team collaboration: After confirming the new location information, individuals can continue to participate in team collaboration and receive task instructions related to the new location or group. At this time, individuals can perform tasks according to the new instructions to ensure the smooth progress of collaboration.

[0163] 5.2.3 Real-time status update: During dynamic position and group changes, the status of individuals will be updated to the central command node in real time, ensuring that the entire team has a clear understanding of the status of each member. This mechanism improves information transparency among team members and facilitates better collaboration.

[0164] 6. Real-time monitoring and optimization module

[0165] Status monitoring: During the entire process, the command node will monitor the individual's position and task execution in real time so as to optimize and adjust the command according to actual needs.

[0166] Feedback loop: After completing a task, individuals can feed back the execution results to the instruction node, forming a feedback loop to improve the accuracy and efficiency of subsequent instructions.

[0167] In the present invention, real-time monitoring and optimization mechanism is an important part to ensure the efficiency of individual and team collaboration. This mechanism realizes dynamic adjustment and optimization through two key links: state monitoring and feedback loop, ensuring that instructions and tasks can adapt to the ever-changing environment and needs.

[0168] 6.1 Status Monitoring

[0169] 6.1.1 Real-time data collection: The central command node continuously collects the individual's location, status and task execution status. These data include the individual's real-time location, movement speed, task progress, execution results, etc., forming comprehensive status information.

[0170] 6.1.2 Dynamic Tracking and Analysis: Through efficient data analysis tools, the command node can dynamically track and analyze the collected status information. The system will identify potential problems in task execution, such as individuals failing to reach the target location on time, delayed task progress, etc., and respond in a timely manner.

[0171] 6.1.3 Intelligent instruction optimization: Based on monitoring data, the central instruction node can optimize and adjust subsequent instructions. This includes:

[0172] Task priority adjustment: When resources are limited, the instruction node can adjust the task priority based on real-time monitoring information and allocate more resources to more urgent tasks.

[0173] Modification of instruction content: If it is found that the content of a certain instruction is no longer applicable or needs further clarification, the instruction node can modify the instruction content immediately and update it to relevant individuals through broadcasting to ensure that all members always get the latest information.

[0174] 6.2 Feedback Loops

[0175] 6.2.1 Task Execution Result Feedback: After completing a task, individuals will feedback the execution results (such as task completion status, problems encountered, additional resources required, etc.) to the central command node. This feedback can not only be a confirmation of task completion, but also include the challenges and solutions faced during the execution process.

[0176] 6.2.2 Closed-loop feedback mechanism: Through the collection and analysis of feedback information, the central command node can form a feedback closed loop. This process includes:

[0177] Data integration and analysis: The system will integrate all feedback information, conduct in-depth analysis of the data, identify common problems and successful cases, and provide a basis for subsequent decision-making.

[0178] Experience accumulation and sharing: Based on the feedback results, the team can accumulate experience and lessons, optimize the task execution process, and improve overall work efficiency. Successful cases can be used as templates and promoted in future tasks.

[0179] Optimize the accuracy and efficiency of instructions: Through a continuous feedback loop, the central instruction node can continuously optimize the instruction content after each task is executed, improving the accuracy and efficiency of subsequent instructions. This dynamic adaptation mechanism enables the team to quickly adjust strategies when facing complex and changing task environments to ensure the smooth completion of tasks.

[0180] 6.3 Effects and Advantages

[0181] Through real-time monitoring and optimization mechanisms, the present invention can achieve the following effects and advantages:

[0182] Enhanced real-time response capabilities: The real-time monitoring system can promptly capture problems in task execution, allowing command nodes to respond quickly and improve the team's adaptability.

[0183] Improve task execution results: Through intelligent instruction optimization and feedback loops, team members can obtain more accurate and effective instructions when performing tasks, thereby improving the overall task execution results.

[0184] Promote team collaboration: The feedback mechanism enhances information exchange and sharing among team members and promotes the improvement of collaboration efficiency.

[0185] Continuous improvement and innovation: Through data accumulation and analysis, the team can learn and grow in every task, continuously optimize the work process, and achieve continuous improvement and innovation.

[0186] In summary, the real-time monitoring and optimization mechanism provides a powerful dynamic adaptability for the hybrid team, which not only improves the efficiency and accuracy of task execution, but also provides solid support for the overall collaboration of the team, making information interaction more efficient and secure. Through this innovative workflow, the present invention can achieve efficient and flexible self-differentiated information interaction of the hybrid team while ensuring information security, thereby improving the overall effect of team collaboration.

[0187] In the above technical solution, the information interaction system suitable for self-differentiation of mixed teams has the following beneficial effects:

[0188] 1. Enhanced information security

[0189] Encryption and decryption mechanism: A location-based dynamic encryption method is used to ensure the confidentiality and integrity of instructions during transmission, reducing the risk of information being stolen or tampered with.

[0190] Authorized access control: Only authorized individuals can access and perform specific tasks, ensuring information security during team collaboration.

[0191] 2. Improve task execution efficiency

[0192] Autonomous movement and navigation: Individuals can quickly and autonomously move to designated locations based on real-time instructions, reducing preparation time before task execution and improving overall work efficiency.

[0193] Dynamic instruction optimization: Through real-time monitoring and status analysis, instruction nodes can adjust instruction content in a timely manner to ensure that individuals always receive the latest and most relevant task information.

[0194] 3.Flexibility

[0195] Dynamic position and grouping changes: Individuals can actively adjust their positions or groups according to task requirements, which enhances the team's ability to adapt in complex and changing environments.

[0196] Feedback loop mechanism: Through feedback after task execution, the system can continuously learn and optimize, and quickly respond to new challenges and task requirements.

[0197] 4. Enhance team collaboration

[0198] Information transparency: The real-time monitoring system improves information sharing and communication among team members and promotes the improvement of collaboration efficiency.

[0199] Experience accumulation and sharing: Through the integration of feedback information, the team can accumulate successful experiences and lessons and continuously optimize the work process.

[0200] 5. Improve user experience

[0201] Humanized design: Individual movement and task execution processes are simplified through guided navigation and real-time feedback mechanisms, making users more efficient and smoother when performing tasks.

[0202] Reduce erroneous operations: The three-confirmation mechanism effectively prevents confusion caused by erroneous operations and improves the confidence and satisfaction of individuals in the team.

[0203] 6. Promote sustainable development

[0204] Optimal resource allocation: Through real-time monitoring and task adjustment, the team can reasonably allocate resources according to actual needs, reduce resource waste, and achieve sustainable and efficient operations.

[0205] In summary, the technical solution of the present invention not only improves the overall effect of team collaboration while ensuring information security, but also provides strong support for the smooth completion of various tasks through efficient and flexible self-differentiated information interaction of hybrid teams.

[0206] exist Figure 2 In the embodiment of the present application, a method for information interaction suitable for self-differentiation of a mixed team is provided, comprising the following steps:

[0207] Use the queue instruction issuance and broadcast module to set the central instruction node and broadcast it at a scheduled time;

[0208] Each individual uses the individual positioning and confirmation module to perform self-positioning and accurate confirmation; including:

[0209] Only a single instruction issuing node is set up to broadcast all instructions required at a specific time; the instruction information is divided into tasks with different encryption modes for individuals in different areas; after receiving the instruction information, all users perform corresponding instruction operations according to their own positions; the first position or the first group is associated with the first encryption key, and the second position or the second group is associated with the second encryption key;

[0210] The self-positioning and accurate confirmation refer to obtaining one's own absolute position by relying on a self-contained positioning module or device.

[0211] In the above technical solution, a queue instruction issuance and broadcast module is set up to perform central instruction node setting and timed broadcasting; an individual positioning and confirmation module is used for self-positioning and accurate confirmation; this not only improves the overall effect of team collaboration, but also provides strong support for the smooth completion of various tasks.

[0212] In a specific embodiment, it also includes:

[0213] Use the secure encryption and decryption module combined with location information to set up encryption mechanisms and decrypt instructions, including:

[0214] An encryption key of the individual's location is sent in advance, and the encryption key is pre-stored. At the same time, the broadcast instructions use different keys to encrypt information in different areas. After receiving the information, each individual first goes to the designated area to obtain the instruction information of the area where he is located, and then decrypts the real content of the instruction based on the key content known in advance. The location information can be replaced by different groups, each of which has a specific instruction storage field and encryption method, so as to realize independent actions of each group under a single broadcast signal.

[0215] In a specific embodiment, it also includes:

[0216] Use dynamic position and group transformation modules to set active transformation mechanisms and feedback mechanisms; including:

[0217] When an individual changes position or group during team collaboration, he or she spontaneously initiates an identity change; spontaneous identity change requires three confirmations from a single queue command issuing node. The first confirmation is to leave the original position or group and inquire about the next position or group, the second confirmation is to enter the new position or group, and the third confirmation is to repeat the confirmation of the new position or group information; the third confirmation is used to ensure that no erroneous instructions are issued and cause greater group confusion.

[0218] Those skilled in the art will appreciate that the present application may be implemented as a system, method or computer program product.

[0219] Therefore, the present disclosure may be specifically implemented in the following forms, namely: it may be completely hardware, it may be completely software (including firmware, resident software, microcode, etc.), or it may be a combination of hardware and software, generally referred to herein as a "circuit", "module" or "system". In addition, in some embodiments, the present application may also be implemented in the form of a computer program product in one or more computer-readable media, and the computer-readable medium may contain computer-readable program code.

[0220] Any combination of one or more computer-readable media can be used. Computer-readable media can be computer-readable signal media or computer-readable storage media. Computer-readable storage media can be, for example, but not limited to, electrical, magnetic, optical, electromagnetic, infrared, or semiconductor systems, devices or devices, or any combination of the above. More specific examples (non-exhaustive list) of computer-readable storage media include: electrical connections with one or more wires, portable computer disks, hard disks, random access memories (RAM), read-only memories (ROM), erasable programmable read-only memories (EPROM or flash memory), optical fibers, portable compact disk read-only memories (CD-ROM), optical storage devices, magnetic storage devices, or any suitable combination of the above. In this document, computer-readable storage media can be any tangible medium containing or storing a program, which can be used by an instruction execution system, device or device or used in combination with it.

[0221] Although the embodiments of the present application have been shown and described above, it is understood that the above embodiments are exemplary and cannot be understood as limiting the present application. A person of ordinary skill in the art can change, modify, replace and modify the above embodiments within the scope of the present application. On this basis, a variety of replacements and improvements can be made to the present application, all of which fall within the scope of protection of the present application.

Claims

1. An information interaction system suitable for self-differentiation of mixed teams, characterized in that: include: The queue instruction issuance and broadcast module is used to set the central instruction node and broadcast it at a scheduled time; Individual positioning and confirmation module, used for each individual to perform self-positioning and accurate position confirmation, which means obtaining one's absolute position by relying on the positioning module or device that comes with it; The information interaction system suitable for self-differentiation of mixed teams only sets a single instruction issuance node for broadcasting all instructions required at a specific time; the instruction information differentiates tasks in different encryption modes for individuals in different areas, and broadcasts instruction information carrying all encryption keys at the same time; all users have the ability to obtain their absolute position by relying on their own positioning modules or devices, and after receiving the instruction information, they parse and execute corresponding instruction operations according to their own positions or groups; the first position or the first group is associated with the first encryption key, and the second position or the second group is associated with the second encryption key.

2. The information interaction system suitable for mixed team self-differentiation according to claim 1, characterized in that: Also includes: The secure encryption and decryption module combined with the location information is used to set the encryption mechanism and decrypt the instructions, including: First, an encryption key carrying the location restriction condition is sent to the individual. The encryption key is pre-stored, and the broadcasted command uses different keys to encrypt information in different areas. Second, after receiving the information, each individual first obtains the location information in the command information of the area where he is located in the specified area, and then decrypts the real content of the command based on the key content known in advance. The first position information corresponds to a first encryption key, the second position information corresponds to a second encryption key, the first exclusive information in the broadcast instruction is obtained by the first encryption key, and the second exclusive information in the broadcast instruction is obtained by the second encryption key; Alternatively, the location information is replaced with different groups, each of which has a specific instruction storage field and encryption method, so that each group can act independently under a single broadcast signaling.

3. The information interaction system suitable for mixed team self-differentiation according to claim 2 is characterized in that: Also includes: Dynamic position and group transformation module, used to set active transformation mechanism and feedback mechanism; include: When an individual changes position or groups during team collaboration, he or she will spontaneously initiate an identity change; Spontaneous identity conversion requires three confirmations from a single queue instruction issuing node to a single individual, including the first confirmation at the first time, which is the instruction issuing node asking the individual whether the individual has left the original position, the second confirmation at the second time, which is the instruction issuing node asking the individual whether the individual has entered a new position or group, that is, the position or group information, and the third confirmation at the third time, which is the instruction issuing node asking the individual to repeatedly confirm the new position or group information; the third confirmation is used to ensure that no erroneous instructions are sent and cause greater group confusion; at the fourth time, after the three confirmation instructions are responded to, the position conversion is completed.

4. An information interaction method suitable for self-differentiation of mixed teams, characterized in that: The following steps are involved: Use the queue instruction issuance and broadcast module to set the central instruction node and broadcast it at a scheduled time; Each individual uses the individual positioning and confirmation module to perform self-positioning and accurate confirmation; including: Only a single instruction issuing node is set up to broadcast all instructions required at a specific time; the instruction information is divided into tasks with different encryption modes for individuals in different areas; after receiving the instruction information, all users perform corresponding instruction operations according to their own positions; the first position or the first group is associated with the first encryption key, and the second position or the second group is associated with the second encryption key; The self-positioning and accurate confirmation refer to obtaining one's own absolute position by relying on a self-contained positioning module or device.

5. The information interaction method applicable to mixed team self-differentiation according to claim 4 is characterized in that: Also includes: Use the secure encryption and decryption module combined with location information to set up encryption mechanisms and decrypt instructions, including: An encryption key of the individual's location is sent in advance, and the encryption key is pre-stored. At the same time, the broadcast instructions use different keys to encrypt information in different areas. After receiving the information, each individual first goes to the designated area to obtain the instruction information of the area where he is located, and then decrypts the real content of the instruction based on the key content known in advance. The location information can be replaced by different groups, each of which has a specific instruction storage field and encryption method, so as to realize independent actions of each group under a single broadcast signal.

6. The information interaction method suitable for mixed team self-differentiation according to claim 5, characterized in that: Also includes: Use dynamic position and group transformation modules to set up active transformation mechanisms and feedback mechanisms; include: When an individual changes position or groups during team collaboration, he or she will spontaneously initiate an identity change; Spontaneous identity conversion requires three confirmations from a single queue instruction issuing node. The first confirmation is to leave the original position or group and inquire about the next position or group, the second confirmation is to enter the new position or group, and the third confirmation is to repeat the confirmation of the new position or group information. The third confirmation is used to ensure that no erroneous instructions are issued and cause greater group confusion.

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