A converged communication scheduling method and system based on an intelligent command and control console

Abstract

This invention belongs to the technical field of communication scheduling, and relates to a converged communication scheduling method and system based on an intelligent command and control console. The method includes the following steps: establishing a static binding relationship between action roles and key equipment resources, generating a comprehensive task instruction set; matching the comprehensive task instruction set to generate a dynamic resource situation map; setting a communication scheduling strategy triggered by a logical combination of personnel status and the operational status of the key equipment resources bound to that personnel, forming a resource-linked scheduling rule base; generating scheduling trigger signals; packaging communication actions into automated scheduling instruction packages; establishing temporary task-specific communication channels for designated communication participants; and initiating a channel dismantling procedure to release communication resources, completing closed-loop adaptive scheduling. This invention solves the problem of inefficient allocation and management of communication resources, making it difficult to automatically adjust according to dynamic changes in the task scenario, thus reducing overall command and dispatch efficiency.

Description

Technical Field

[0001] This invention belongs to the technical field of communication scheduling, and relates to a converged communication scheduling method and system based on an intelligent command and control console. Background Technology

[0002] In complex mission scenarios such as emergency rescue and security patrols, the core challenge for command centers lies in how to grasp the overall situation on-site in real time and conduct efficient communication and dispatch accordingly. The dynamic locations of on-site personnel, the operational status of key equipment, and the progress of the mission are interconnected yet fragmented data sources. Commanders need to integrate and analyze this fragmented information to make effective decisions. This information integration process often relies on the commander's personal experience and intensive verbal communication. The long information transmission chain is prone to delays, omissions, or misjudgments, especially under high-pressure environments, where this challenge becomes even more severe and directly impacts mission execution efficiency.

[0003] Currently, the industry's solutions typically involve establishing a command and dispatch system centered on voice communication, supplemented by an independent GPS positioning system to monitor personnel locations. Commanders passively receive verbal reports from frontline personnel via traditional communication methods such as walkie-talkies or telephones to understand their locations, mission progress, and the status of equipment used. While some advanced systems can visualize personnel locations on electronic maps, deeper operational information such as equipment status and mission logic still requires manual correlation and interpretation, lacking the ability to automatically integrate multi-dimensional information and transform it into intelligent dispatch instructions.

[0004] Based on the above problems, the drawbacks of the traditional approach are its one-sided information perception and lagging scheduling response, the extensive allocation and management of communication resources, the difficulty in automatically adjusting according to the dynamic changes of the task scenario, and the reduction of overall command and dispatch efficiency. Summary of the Invention

[0005] In a first aspect, the present invention provides a converged communication scheduling method based on an intelligent command and control console, employing the following technical solution:

[0006] A converged communication scheduling method based on an intelligent command and control console includes the following steps:

[0007] S1. Based on the preset task type, define multiple action roles, key equipment resources and milestone nodes, and establish a static binding relationship between action roles and key equipment resources to generate a comprehensive task instruction set;

[0008] S2. Receive real-time geographical location data of personnel and real-time operational status data of key equipment resources, match them according to the comprehensive mission instruction set, and generate a dynamic resource situation map.

[0009] S3. Analyze the dynamic resource situation map, set a communication scheduling strategy that uses the logical combination of personnel status and the operating status of key equipment resources bound to that personnel as the trigger condition, and form a resource linkage scheduling rule base.

[0010] S4. Continuously compare the real-time data in the dynamic resource status map with the trigger conditions of the resource linkage scheduling rule base. When the trigger conditions are met, it is determined to be a valid trigger and a scheduling trigger signal is generated.

[0011] S5. Parse the scheduling trigger signal, retrieve the preset communication action from the resource linkage scheduling rule base based on the scheduling trigger signal, and package the communication action into an automated scheduling instruction package;

[0012] S6. Issue automated scheduling instruction packages to the underlying converged communication platform, which then performs cross-system and cross-standard resource coordination and signaling conversion to establish temporary task-specific communication channels for designated communication participants.

[0013] S7. Real-time monitoring of temporary task-specific communication channels. When the real-time status in the dynamic resource situation map no longer meets the triggering conditions for establishing the channel, the channel teardown procedure is initiated to release communication resources and complete closed-loop adaptive scheduling.

[0014] A further aspect of the present invention generates a comprehensive task instruction set, comprising the following steps:

[0015] Based on the specific mission type, multiple action roles, required key equipment resources, predetermined activity geographical areas of key missions, and milestone nodes in the process are predefined in the command console.

[0016] Establish static binding relationships between action roles and key equipment resources, predetermined activity geographical areas and milestone nodes, and clarify the responsibilities and relationships of each element in the mission;

[0017] All elements and their static binding relationships are stored in a structured manner, and together they are constructed and output as a comprehensive task instruction set.

[0018] A further aspect of the present invention generates a dynamic resource situation map, comprising the following steps:

[0019] Continuously receive and analyze real-time geographic location data proactively reported by the communication terminals of various personnel through the wireless network;

[0020] It synchronously receives and parses real-time operating status data actively reported by the built-in sensors of key equipment resources, including the online status of the equipment, remaining power or working mode.

[0021] The acquired real-time geographical location and real-time operational status data are matched and dynamically associated based on the static binding relationship in the comprehensive task instruction set, and a dynamic resource situation map is generated on the visualization interface.

[0022] A further aspect of this invention involves forming a resource-linked scheduling rule base, comprising the following steps:

[0023] Analyze the potential state changes of each element in the dynamic resource situation map that indicate specific risks or events, and set communication scheduling strategies accordingly;

[0024] For each communication scheduling strategy, a logical "AND" combination consisting of personnel-level status and equipment-level status is set as its trigger condition.

[0025] Each trigger condition is pre-associated with multiple corresponding communication actions, including the defined communication operation type, participants, and priority.

[0026] The communication scheduling strategies, which include triggering conditions and associated communication actions, are collected and stored to form a resource-linked scheduling rule base.

[0027] A further aspect of the present invention generates a scheduling trigger signal, comprising the following steps:

[0028] The personnel locations and equipment operating status updated in real time in the dynamic resource situation map are compared cyclically with the various trigger conditions in the resource linkage scheduling rule base.

[0029] When the real-time state combination at a certain moment completely satisfies the logical condition of a certain rule, it is determined as a valid trigger;

[0030] Based on this valid trigger, a snapshot of the on-site data at the trigger moment is captured and a unique identifier of the trigger rule is encapsulated to jointly generate a scheduling trigger signal.

[0031] A further aspect of this invention involves packaging communication actions into automated scheduling instruction packages, including the following steps:

[0032] Based on the rule identifier contained in the scheduling trigger signal, the preset communication action is retrieved from the resource linkage scheduling rule base;

[0033] The retrieved communication action parsing dynamically resolves the communication participants defined in the communication action into specific target terminal addresses based on the real-time binding relationship in the dynamic resource situation map.

[0034] The communication mode and priority defined in the communication action are mapped to the channel type code and execution priority value that can be recognized by the underlying communication platform;

[0035] The target terminal address, channel type, and execution priority-related execution parameters obtained after parsing and mapping are encapsulated to form an automated scheduling instruction package.

[0036] A further aspect of the present invention involves establishing a temporary dedicated communication channel for a specific task, comprising the following steps:

[0037] The automated scheduling instruction package is sent to the underlying converged communication platform through an internal interface;

[0038] The converged communication platform parses the contents of the automated scheduling instruction packet and automatically completes resource coordination and signaling conversion across systems and network standards based on the differences in target terminal addresses.

[0039] Establish point-to-point or point-to-many real-time communication links between the target terminal addresses specified in the automated scheduling instruction package;

[0040] Newly established communication links closely associated with specific scheduling events are marked as temporary task-specific communication channels.

[0041] A further aspect of this invention, achieving closed-loop adaptive scheduling, includes the following steps:

[0042] After the temporary mission-dedicated communication channel is established, its call quality and call duration are monitored.

[0043] The continuously operating comparison mechanism continues to monitor the on-site situation and automatically initiates the channel dismantling procedure when it finds that the situation conditions that initially triggered the establishment of the channel are no longer met.

[0044] According to the channel dismantling procedure, the converged communication platform automatically dismantles the temporary channel and releases all network and communication resources it occupies, restoring it to an available state;

[0045] Complete the full closed-loop adaptive scheduling process.

[0046] A further aspect of this invention involves setting a logical AND combination of personnel-level and equipment-level states as the triggering condition for each communication scheduling strategy, including the following steps:

[0047] Personnel status is defined as a specific action role entering a preset geofence area, or a change in their task status;

[0048] The equipment dimension status is defined as a real-time operational status data parameter of a key equipment resource that is bound to the action role;

[0049] Two different states are bound together by a logical AND operation to form the triggering condition for a composite event.

[0050] Secondly, the present invention provides a converged communication and dispatch system based on an intelligent command and control console, which adopts the following technical solution:

[0051] A converged communication and dispatch system based on an intelligent command and control console includes the following modules:

[0052] The task definition and binding module defines multiple action roles, key equipment resources, and milestone nodes based on preset task types, and establishes static binding relationships between action roles and key equipment resources to generate a comprehensive task instruction set.

[0053] The dynamic situation generation module is used to receive real-time geographical location data of personnel and real-time operational status data of key equipment resources, match them according to the comprehensive mission instruction set, and generate a dynamic resource situation map.

[0054] The scheduling rule establishment module is used to analyze the dynamic resource situation map, set a communication scheduling strategy that uses the logical combination of personnel status and the operating status of key equipment resources bound to that personnel as the trigger condition, and form a resource linkage scheduling rule library.

[0055] The trigger condition comparison module is used to continuously compare the real-time data in the dynamic resource status map with the trigger conditions in the resource linkage scheduling rule base. When the trigger conditions are met, it is determined to be a valid trigger and a scheduling trigger signal is generated.

[0056] The scheduling instruction generation module is used to parse the scheduling trigger signal, retrieve the preset communication action from the resource linkage scheduling rule base based on the scheduling trigger signal, and package the communication action into an automated scheduling instruction package.

[0057] The communication execution linkage module sends automated scheduling instruction packages to the converged communication platform. The underlying converged communication platform performs cross-system and cross-standard resource coordination and signaling conversion, and establishes temporary task-specific communication channels for designated communication participants.

[0058] The resource recycling management module monitors temporary task-specific communication channels in real time. When the real-time status in the dynamic resource situation map no longer meets the triggering conditions for establishing the channel, the channel removal procedure is initiated to release communication resources and complete closed-loop adaptive scheduling.

[0059] In summary, the present invention has the following beneficial technical effects:

[0060] 1. By deeply linking personnel, equipment, and mission objectives, and integrating multi-source field data in real time, a three-dimensional, dynamic resource situation map is constructed, greatly enhancing the situational awareness capabilities of the command center. This panoramic situational presentation is no longer limited to isolated locations or fragmented status reports, but rather organically integrates key elements such as people, locations, objects, and events. This allows commanders to intuitively understand the intrinsic connections and dynamic changes between these elements, enabling them to make more accurate and forward-looking judgments, thus achieving a transformation from simple information aggregation to in-depth situational understanding.

[0061] 2. Establish a set of automated scheduling rules based on multi-dimensional state combinations to achieve intelligent and proactive command and dispatch. The system can automatically identify complex risks requiring attention in specific scenarios based on preset logic, such as abnormal conditions of critical equipment belonging to personnel in specific areas, and automatically trigger corresponding communication actions. This frees commanders from tedious and repetitive manual monitoring and judgment, transforming the dispatch mode from post-event response to in-process early warning and proactive intervention, significantly improving the efficiency and accuracy of command decision-making.

[0062] 3. Through integration with the underlying converged communication platform, the system enables automated, refined management and dynamic allocation of communication resources. When specific situational conditions are triggered, the system can automatically create temporary dedicated communication links across systems and standards, ensuring that critical information can be accurately transmitted to relevant parties in the first instance. After the situational conditions are resolved, the system automatically dismantles the links and reclaims the resources, forming a complete closed-loop management process. Attached Figure Description

[0063] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the accompanying drawings used in the description of the embodiments or the prior art will be briefly introduced below. The drawings are used to provide a further understanding of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0064] Figure 1 A flowchart illustrating an embodiment of this application is disclosed.

[0065] Figure 2 Structural schematic diagrams of embodiments of this application are disclosed. Detailed Implementation

[0066] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, not all embodiments. All other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0067] The following is in conjunction with the appendix Figures 1-2 A preferred description of the present invention is provided below.

[0068] See attached document Figure 1 This invention proposes a converged communication scheduling method based on an intelligent command and control console, comprising the following steps:

[0069] S1. Based on the preset task type, define multiple action roles, key equipment resources and milestone nodes, and establish a static binding relationship between action roles and key equipment resources to generate a comprehensive task instruction set;

[0070] S2. Receive real-time geographical location data of personnel and real-time operational status data of key equipment resources, match them according to the comprehensive mission instruction set, and generate a dynamic resource situation map.

[0071] S3. Analyze the dynamic resource situation map, set a communication scheduling strategy that uses the logical combination of personnel status and the operating status of key equipment resources bound to that personnel as the trigger condition, and form a resource linkage scheduling rule base.

[0072] S4. Continuously compare the real-time data in the dynamic resource status map with the trigger conditions of the resource linkage scheduling rule base. When the trigger conditions are met, it is determined to be a valid trigger and a scheduling trigger signal is generated.

[0073] S5. Parse the scheduling trigger signal, retrieve the preset communication action from the resource linkage scheduling rule base based on the scheduling trigger signal, and package the communication action into an automated scheduling instruction package;

[0074] S6. Issue automated scheduling instruction packages to the underlying converged communication platform, which then performs cross-system and cross-standard resource coordination and signaling conversion to establish temporary task-specific communication channels for designated communication participants.

[0075] S7. Real-time monitoring of temporary task-specific communication channels. When the real-time status in the dynamic resource situation map no longer meets the triggering conditions for establishing the channel, the channel teardown procedure is initiated to release communication resources and complete closed-loop adaptive scheduling.

[0076] In one embodiment of the present invention, step S1 includes the following steps:

[0077] Based on the mission type, multiple action roles, key equipment resources, and milestone nodes representing mission progress are predefined. Key equipment resources refer to specific equipment necessary for mission execution and with monitorable operational status, such as life detectors or demolition tools. Static binding relationships are established between the various elements, and each action role is associated with the key equipment resources it needs to operate, the predetermined geographical area of ​​the activity, and the milestone nodes that need to be monitored, forming a comprehensive mission instruction set.

[0078] Specifically, operators select a task type, such as "urban high-rise building fire rescue" or "wilderness mountain search." Task types are pre-categorized categories of different emergency or operational scenarios, such as fire rescue or security patrol. The system provides a series of definition tools based on the selected task type. Operators use these tools to create the basic building blocks required for the task type, which are called task elements. Task elements represent the smallest definable unit constituting a task, including defining multiple action roles, key equipment resources, and milestone nodes representing the task's progress. Multiple action roles are defined; for example, a fire rescue mission might define a demolition team, a search and rescue team, and a medical team. An action role is a virtual identity based on functional division, assigned a role name and functional description to specific personnel or teams.

[0079] Define critical equipment resources, such as hydraulic shears, life detectors, and portable ventilators, and input them into the system. Critical equipment resources refer to specific equipment necessary for mission execution and whose operational status can be monitored. Critical equipment resources include the equipment name, model, and one or more status parameters that can be collected by remote sensors. Specify the status parameters that need to be monitored for each type of critical equipment resource, such as power, pressure, or on / off status. The status parameters are set based on the equipment manual and measured data from over 200 sets of similar equipment in simulated environments.

[0080] Define milestone nodes to represent the task progress. These milestone nodes are key indicators for measuring task completion and are used to mark logical checkpoints for critical task progress, such as reaching the fire floor, discovering trapped personnel, and completing personnel evacuation. The data structure represents Boolean flags with state attributes. After defining all independent task elements, the next step is to build the relationship framework. The relationship framework is the data structure and logical rules within the command console used to organize and link different task elements, defining how task elements are related and influence each other.

[0081] The system interface establishes static binding relationships between various elements. These static binding relationships are logical links established before the mission begins and typically remain unchanged during mission execution. They clearly define which action role uses which key equipment resources, which predetermined activity geographic area, and which milestone nodes need to be monitored. A predetermined activity geographic area refers to a virtual spatial range defined by map coordinates or polygon vertices, used to constrain the action role's activity range or specify the mission location. This is achieved by logically linking the action role with one or more key equipment resources, predetermined activity geographic areas, and related milestone nodes. For example, an operator selects the "Demolition Team" action role and then checks "Hydraulic Shears" from the equipment list, designating it as the standard equipment for the demolition team. The electronic map delineates an area and marks it as "Demolition Point 1," serving as the predetermined activity geographic area for the "Demolition Team." Associating the milestone node "Arrival at the Fire Floor" with the "Demolition Team" indicates that the completion of this node requires reference to the actions of the "Demolition Team."

[0082] By repeating this association operation for all action roles, a structured dataset is formed that associates each action role with the key equipment resources to be operated, the predetermined geographical area of ​​the activity, and the milestone nodes to be monitored. This dataset is a comprehensive task instruction set containing multi-dimensional business logic and is stored in the form of electronic documents or database entries.

[0083] For example, for the mission type of "high-rise building fire rescue", first define the mission elements and create two action roles, namely "demolition team" and "search and rescue team", and create two key equipment resources, namely "hydraulic shears" and "life detector".

[0084] The battery status of the "hydraulic shears" is set as a key parameter to be monitored. Based on data from 100 rescue drills, a battery level below 20% is set as a low battery threshold. The online status of the "life detector" is also set as a key parameter to be monitored. Two milestone nodes are created: "Entering the core fire area" and "Finding the first survivor." A relational framework is then constructed, establishing static binding relationships. The "breach team" action role is bound to the "hydraulic shears" key equipment resource, and its designated activity area is set to "East side of Building C, 5th Floor" marked on the map, while also being linked to the "Entering the core fire area" milestone node. The "search and rescue team" action role is bound to the "life detector" key equipment resource, and its designated activity area is also set to "East side of Building C, 5th Floor," linked to the "Finding the first survivor" milestone node. The system saves all the above definitions and binding relationships, generating a comprehensive mission instruction set for this rescue mission. This comprehensive mission instruction set contains the complete logic for the "breach team" to carry the "hydraulic shears" into the designated area and achieve specific milestones.

[0085] In one embodiment of the present invention, step S2 includes the following steps:

[0086] The system receives and parses real-time geographical locations reported by the communication terminals of various personnel, and simultaneously receives and parses real-time operational status data actively reported by the sensors built into key equipment resources. The real-time operational status data includes the online status, remaining power, or working mode of the equipment. The system then matches and binds the real-time geographical locations and real-time operational status data with the action roles and key equipment resources in the integrated mission instruction set to generate a dynamic resource situation map.

[0087] Specifically, the intelligent command and control console's backend services proactively collect and integrate multi-source field data. Multi-source field data refers to a collection of real-time information gathered from different types of physical entities at the mission site, including location data from personnel terminals and status data from equipment sensors. The system continuously receives and parses real-time geographic location information reported by each personnel's communication terminals via a built-in communication interface. Real-time geographic location information refers to the instantaneous coordinate data determined and reported by the positioning module of the personnel's communication terminals. Personnel communication terminals refer to electronic devices carried by on-site personnel that possess positioning and data transmission capabilities, such as dedicated walkie-talkies with positioning functions or smartphones with specific applications installed, which send data packets containing unique personnel identifiers and current latitude and longitude coordinates to the command and control console.

[0088] The system captures data packets containing unique personnel identifiers and current latitude and longitude coordinates, and extracts personnel identification and location information from them. Simultaneously, the system receives and parses real-time operational status data actively reported by sensors built into the key equipment resources. This real-time operational status data is instantaneous information describing the operational status of the key equipment resources, collected and transmitted by internal sensors. It includes the equipment's online status, remaining battery power, or operating mode. The data structure of this real-time operational status data is a set of key-value pairs, for example, in the format {"ID":"YJ001", "Online Status":"Powered On", "Remaining Battery Power":"95%"}.

[0089] Previously, the hydraulic shears, linked to the "demolition team," had integrated sensors that monitored battery voltage and converted it into a remaining power percentage. They also monitored the on / off status of the main power supply, packaging this information along with the equipment's unique serial number. Upon receiving this equipment data, the system parsed it, extracting the equipment serial number, its corresponding online status, and remaining power. The collected real-time data was matched and bound to the established integrated task instruction set. All received personnel location data was traversed, and the system queried the corresponding action role (e.g., "demolition team") based on the personnel identifier within the integrated task instruction set. The system continued searching the integrated task instruction set for key equipment resources statically bound to the "demolition team" role, namely the "hydraulic shears." The real-time received equipment data stream identified the real-time operating status data belonging to this "hydraulic shears." Through this series of queries and matches, the system associated real-time geographical location information and real-time equipment status information with predefined action roles.

[0090] This process is repeated continuously for all personnel and equipment present, generating a dynamic resource situation map that reflects in real time "who is where, what equipment is in what state, and what kind of person is using." The dynamic resource situation map is usually displayed as an electronic map on a large screen in the command center. The electronic map displays icons representing different action roles, and the positions of these icons move continuously according to the reported real-time geographical location. Next to the icons of different action roles, the current operating status of the key equipment resources they are attached to is displayed, such as battery bars or working mode indicator lights.

[0091] For example, in the generated integrated task instruction set, after the "High-Rise Building Fire Rescue" mission begins, the firefighters designated as the "Demolition Team" activate their personnel communication terminals. The personnel communication terminals begin reporting their real-time geographical location. The command console receives the data packet and parses the location as "114.05 degrees East longitude, 22.54 degrees North latitude". The "hydraulic shears" carried by the "Demolition Team" are also powered on. The real-time operating status data reported by the built-in sensors of the "hydraulic shears" carried by the "Demolition Team" is received by the system and parsed as {"ID": "YJ001", "Online Status": "Powered on", "Remaining Battery": "95%"}. After receiving two sets of multi-source on-site data, matching and binding logic is executed. Based on the personnel identifier of the reported location, the integrated task instruction set finds the action role as "Demolition Team", and then finds that the key equipment resource bound to the "Demolition Team" is "hydraulic shears".

[0092] By binding the real-time operating status data of the "hydraulic shears" to the personnel, the dynamic resource situation map of the command center is finally generated. The dynamic resource situation map includes the icon of the "demolition team" showing the corresponding geographical location of the "Building C". The information box that pops up next to the icon of the "demolition team" clearly shows that the status of the "hydraulic shears" it is bound to is "powered on, 95% remaining power". The static instruction set is instantiated into a real-time monitorable scene.

[0093] In one embodiment of the present invention, step S3 includes the following steps:

[0094] Analyze the potential changes in various elements within the dynamic resource situation map and set a set of communication scheduling strategies. The trigger condition for each communication scheduling strategy is set as a logical AND combination of at least two different dimensions of state information: one dimension is the role or location status of the personnel, and the other dimension is the operational status of the key equipment resources bound to that personnel. For example, if the setting is "when a member of the 'demolition team' enters the 'core area' and the power of the 'hydraulic shears' equipment bound to him is below a preset threshold", then a specific communication action will be triggered. All communication scheduling strategies are aggregated into a resource linkage scheduling rule base.

[0095] Specifically, the changes in various elements of the dynamic resource situation map are analyzed. For example, a operative entering a dangerous area may experience power depletion or malfunction of their critical equipment. A set of communication scheduling strategies is established, which refers to complete automated scheduling rules. For each communication scheduling strategy, trigger conditions are defined. A communication scheduling strategy consists of trigger conditions and one or more associated communication actions, represented by an object containing conditional logic and action sequences. The trigger condition is a logical "AND" combination of cross-dimensional state changes. The logical "AND" combination is a Boolean algebra operation; the result of the entire combination is true only when all participating conditions are true simultaneously. Cross-dimensional state changes refer to trigger conditions containing states from different information sources, meaning that at least two conditions from different dimensions must be satisfied simultaneously.

[0096] The first dimension concerns the status of personnel. Select an action role such as "demolition team" or set a geofence such as "core area". When members of the specified role enter this area, the conditions of the personnel dimension must be met.

[0097] The second dimension concerns the operational status of the key equipment resources bound to the personnel. This requires selecting a status parameter such as "remaining battery power" and setting a threshold such as "below 20%". These two dimensions are linked together using a logical "AND" to form a complete trigger condition: "when a demolition team member enters the 'core area' and the battery power of their bound 'hydraulic shears' equipment is below 20%". After defining the trigger condition, the commander needs to specify the specific communication actions to be executed after the trigger for the communication dispatch strategy, such as automatically establishing a voice call with rear equipment experts. The commander repeats this process, creating multiple communication dispatch strategies for different scenarios, and then aggregating and storing all created and enabled strategies to produce a structured resource-linked dispatch rule library. The resource-linked dispatch rules are a collection storing all defined communication dispatch strategies. The data structure can be a database table or a configuration file, where each row or entry represents an independent dispatch strategy, containing all the logic of the trigger condition and the corresponding communication action definition.

[0098] For example, in the generated dynamic resource situation map, the rule editor of the intelligent command console formulates a communication scheduling strategy to address potential equipment issues that may arise when the "demolition team" operates in the core fire area. First, the first part of the trigger condition, the personnel dimension status, is defined as when personnel with the action role of "demolition team" enter the predetermined activity geographical area, the "core area." Next, the second part of the trigger condition, the equipment dimension status, is defined as when the "remaining power" of the key equipment resource "hydraulic shears" bound to the "demolition team" is below 20% in the real-time operating status data. These two conditions are then linked using a logical "AND" combination. This communication scheduling strategy configures a communication action, setting it to "automatically establish a high-priority voice call between the 'demolition team' member who triggered this rule and the 'equipment support expert' in the command center." After the settings are completed, the complete communication scheduling strategy is saved, and all communication scheduling strategies are aggregated into a resource-linked scheduling rule library.

[0099] In one embodiment of the present invention, step S4 includes the following steps:

[0100] The system continuously updates the personnel locations and equipment operating status in real time on the dynamic resource situation map, and compares them cyclically with the various trigger conditions in the resource linkage scheduling rule base. When the real-time status combination at a certain moment completely meets the logical conditions of a certain rule, it is determined to be a valid trigger. Based on this valid trigger, a scheduling trigger signal containing the trigger rule identifier and relevant personnel and equipment information is generated.

[0101] Specifically, after the service starts, it continuously compares the real-time updated personnel locations and equipment operating status in the dynamic resource situation map with various trigger conditions in the resource-linked scheduling rule base. Whenever any data in the dynamic resource situation map changes, such as an update in the geographical coordinates of operatives or a decrease in the remaining power of critical equipment resources, the monitoring service will capture this change. The monitoring service will use the personnel or equipment associated with this change as the search core and filter all rules related to the search core from the resource-linked scheduling rule base. For each selected rule, its preset trigger conditions are read and logical judgments are made using the latest complete set of data from the dynamic resource situation map.

[0102] When a real-time state combination at a certain moment fully satisfies the logical conditions of a certain rule—for example, if the real-time location of the "demolition team" has indeed entered the geographical range of the "core area," and the real-time power of its associated "hydraulic shears" is indeed below a preset threshold—the system determines this as a valid trigger, signifying that a specific scenario requiring command and intervention has occurred. Based on this valid trigger, the system automatically captures and generates a scheduling trigger signal to be executed. The function of the scheduling trigger signal is to serve as a notification of an event occurrence, transmitted from the situational awareness stage to the scheduling execution stage. The data structure is an information body containing multiple fields, including the trigger rule identifier (i.e., the unique number of the communication scheduling strategy that has been satisfied) and entity information related to the trigger event, such as the identity IDs of relevant personnel and the IDs of relevant key equipment resources. The settings are derived from a snapshot of the dynamic resource situation map at the moment the valid trigger occurs.

[0103] For example, in the established resource-linked scheduling rule base, the system continuously compares data during a rescue mission. At 10:30:15 AM, the dynamic resource situation map receives a new location reported by the communication terminal of a member of the "demolition team." The reported new location is within the previously defined "core area" geofence. When the system performs a cyclical comparison, it determines that the first part of the rule—"when a member of the demolition team enters the 'core area' and the battery level of their attached 'hydraulic shears' is below 20%"—has been met. The "hydraulic shears'" battery level is still 25%, so the rule is not triggered. At 10:32:40 AM, the system receives real-time operational status data reported by the "hydraulic shears," showing that its remaining battery level has dropped to 19%. In the next comparison, the monitoring service re-evaluates the rule and finds that the personnel location condition is still met, and the equipment battery level condition (19% below 20%) is also met.

[0104] Since the two conditions are combined by a logical "AND" and both are true at this moment, the system determines that it is a valid trigger. Based on the valid trigger, the system generates a scheduling trigger signal. The data content of the signal is {Rule ID: "Rule001_LowBatt_In_CoreZone", Personnel ID: "Demolition Team", Equipment ID: "YJ001", Current Status: "Location - Core Zone, Battery -19%"}.

[0105] In one embodiment of the present invention, step S5 includes the following steps:

[0106] The system receives and parses scheduling trigger signals, and retrieves preset communication actions from the resource-linked scheduling rule base based on the rule identifier contained in the scheduling trigger signal. The preset communication actions define the communication participants, communication mode, and priority, such as establishing a high-priority dedicated line call between the "dismantling team" member who triggered the rule and the preset "equipment support expert". The retrieved communication actions are packaged into an automated scheduling instruction package containing the target terminal address, channel type, and execution priority.

[0107] Specifically, after receiving the dispatch trigger signal generated in the previous step, the dispatch parsing module of the intelligent command and control console parses the signal, much like disassembling a data packet to read its internal information. It extracts the key trigger rule identifier, which is the unique key connecting situational changes with pre-defined countermeasures. Using the trigger rule identifier as a query condition, the resource-linked dispatch rule library constructed in the third step performs a rapid search. Since each policy in the resource-linked dispatch rule library has a unique identifier, it can find the one that perfectly matches the current dispatch trigger signal. Once a matching rule is found, the system extracts the pre-defined communication action from the rule's definition.

[0108] Preset communication actions are a series of communication operation instructions that the system must automatically execute once the trigger conditions are met, as pre-defined when creating a communication scheduling strategy. These actions include records with fields such as communication participants, communication mode, and priority. Communication participants are defined, such as "dismantling team" and "equipment support expert"; communication modes are defined, such as "dedicated line call"; and communication priorities are defined, such as "high priority." Communication participants refer to the personnel, roles, or functional positions specified by the communication action to join the communication. The communication mode refers to the type of communication link to be established, such as a one-to-one call, a one-to-many group call, or data transmission. Priority is the importance level set for the communication action, used to determine the priority order of communication establishment when network resources are scarce. The priority is set based on the urgency of the task in different scenarios; for example, equipment fault alarms have a higher priority than regular location reporting.

[0109] The system needs to translate preset communication actions into commands that the underlying communication platform can understand and execute. The system performs an information conversion, resolving the communication participants' information into specific device addresses. Specifically, the role of "demolition team" is mapped to the unique ID of the communication terminal currently used by the personnel, and "equipment support expert" is mapped to their registered phone number or terminal ID in the system. This parsed and converted information includes the target terminal address, the channel type representing the communication mode, and the execution priority value indicating priority. The target terminal address refers to the network reachable address of the specific communication device used by the communication participant, such as the ID number of a digital walkie-talkie or the IP address of a smartphone. The channel type is the specific code for the communication mode at the technical implementation level, such as "..." "" represents point-to-point voice calls. Execution priority is a field within the automated scheduling instruction package, which translates the abstract priority set in the communication action into a specific value that the underlying platform can recognize. These are then packaged together to generate the automated scheduling instruction package, signifying that a complete scheduling decision has been made.

[0110] For example, the generated scheduling trigger signal is: {Rule ID: "Rule001_LowBatt_In_CoreZone", Personnel ID: "Demolition Team", Equipment ID: "YJ001"}. After receiving and parsing the scheduling trigger signal, the system extracts the trigger rule ID as "Rule001_LowBatt_In_CoreZone". Using the trigger rule ID, the system searches the resource-linked scheduling rule base and successfully matches the preset communication action: "Establish a high-priority dedicated line call between the 'Demolition Team' member who triggered this rule and the preset 'Equipment Support Expert'". The system then begins packaging the automated scheduling instruction package. The communication participant "Demolition Team" is resolved to the target terminal address "ID-8573" of the communication terminal of the action personnel currently bound to it, and "Equipment Support Expert" is resolved to the target terminal address "Tel-13900112233".

[0111] The communication mode "dedicated line call" is converted to the channel type " The priority "high priority" is converted to execution priority "1", generating an automated scheduling instruction package with the following content: {target terminal address: ["ID-8573", "Tel-13900112233"], channel type: " , Execution priority: "1"}.

[0112] In one embodiment of the present invention, step S6 includes the following steps:

[0113] The underlying converged communication platform issues automated scheduling instruction packages, which then automatically complete cross-system and cross-standard resource coordination and signaling conversion based on the instruction content, establishing point-to-point or point-to-many call links for designated communication participants. The call link serves as a temporary task-specific communication channel, and its lifespan is related to the existence of triggering conditions.

[0114] Specifically, the intelligent command and control console's scheduling execution engine sends automated scheduling command packages to the underlying converged communication platform. The converged communication platform is a management system that integrates multiple communication networks and protocols, acting as a bridge between different communication systems. It is a hardware and software combined system capable of uniformly managing and scheduling communication equipment of different standards and manufacturers, such as digital trunking radios, public network mobile phones, and VoIP phones, enabling interconnection. Upon receiving the automated scheduling command package, the converged communication platform parses it, reading parameters such as the target terminal address, channel type, and execution priority. Based on the content of the automated scheduling command package, the converged communication platform initiates its core resource coordination and signaling conversion functions. For example, the target terminal address in the automated scheduling command package might be the ID of a private network radio and the number of a public network mobile phone. First, it checks the current status and availability of both terminals and, based on the higher execution priority of the command, reserves the necessary communication resources in their respective networks.

[0115] The underlying converged communications platform performs critical signaling conversion, transforming the signaling protocol for establishing private network calls into the PSTN or VoIP signaling protocol for establishing public network phone calls. A media gateway is established between the two, responsible for real-time transcoding of the digital voice stream from the private network walkie-talkie into an audio format recognizable by public network mobile phones, and vice versa. Through a series of automated operations, the underlying converged communications platform successfully establishes point-to-point communication links for designated communication participants: members of the "breach and rescue team" and "equipment support experts." These point-to-point links span different communication systems and standards, enabling on-site personnel holding private network walkie-talkies to directly communicate with experts in the office using ordinary mobile phones. The newly established links are marked as temporary mission-dedicated communication channels. These temporary mission-dedicated communication channels are dynamically created to respond to specific mission events and contain session records containing information such as the parties involved, call duration, and resource usage.

[0116] Among them, cross-system and cross-standard resource coordination and signaling conversion are the core capabilities of the underlying converged communication platform. Cross-system refers to coordinating resources between different management domains, and cross-standard refers to protocol translation and media stream encoding between different communication standards, such as the conversion of TETRA digital trunking signaling to SIP signaling.

[0117] For example, the system-generated automated scheduling instruction package {target terminal address: ["ID-8573", "Tel-13900112233"], channel type: The intelligent command console sends the command, with a priority of "1", to the underlying converged communication platform. Upon receiving the command, the platform parses the request and determines that a point-to-point voice call needs to be established between a private network walkie-talkie with ID "ID-8573" and a public network mobile phone with the number "Tel-13900112233". The platform then checks and finds that "ID-8573" belongs to the internal digital trunking system, while "Tel-13900112233" belongs to the public telephone network. The platform immediately initiates a cross-system, cross-standard resource coordination and signaling conversion process, first sending a command to the digital trunking system to call "ID-8573", and simultaneously initiating a call to "Tel-13900112233" through the PSTN gateway.

[0118] Once both sides are connected, the platform bridges and transcodes the media streams of the two calls through its internal media server, thereby establishing a stable communication link between the "demolition team" members and the "equipment support expert." This communication link is recorded by the system as a temporary, mission-dedicated communication channel.

[0119] In one embodiment of the present invention, step S7 includes the following steps:

[0120] Real-time monitoring of the call quality and duration of the mission-dedicated communication channel, and subsequent comparison revealing that the on-site situational conditions that triggered the establishment of the channel are no longer met (e.g., the power of the corresponding equipment is restored or personnel are evacuated from the area), will initiate the channel dismantling procedure; automatically dismantling the temporary channel and releasing the occupied network and communication resources, thereby completing the entire scheduling from situational awareness to automatic response to resource recovery.

[0121] Specifically, the underlying converged communication platform maintains the channel while simultaneously monitoring its operational status in real time. This monitoring process includes two aspects: firstly, assessing call quality by analyzing parameters such as voice data packet latency, jitter, and packet loss rate to ensure communication effectiveness; secondly, recording the call duration to provide data for subsequent process analysis and resource auditing. Meanwhile, the described continuous comparison mechanism continues, constantly comparing the latest data from the dynamic resource situation map with the resource-linked scheduling rule base in the background. Call quality is a measure of communication link performance, typically described by user experience metrics such as clarity and the absence of interruptions, while technically corresponding to specific indicators such as packet loss rate and latency.

[0122] If the on-site situational conditions that triggered the establishment of the channel are no longer met, such as after communicating with equipment support experts, the "dismantling team" successfully replacing the hydraulic shears' battery, restoring the remaining power reported by the equipment sensors to 90%, or the "dismantling team" completing its tasks within the area and withdrawing from the "core area," causing a change in its position status, the continuous comparison mechanism will find that the triggering condition of the previously met rule is no longer valid. This reversal of state will trigger a reverse signal, initiating the channel dismantling procedure. The channel dismantling procedure is a predefined sequence of automated instructions used to terminate the temporary mission-dedicated communication channel and reclaim all system resources it occupies.

[0123] Upon receiving the dismantling instruction, the underlying converged communication platform executes the reverse operation of establishing the channel, automatically sending dismantling signals to all terminals involved in the temporary channel, such as simultaneously sending hang-up commands to private network walkie-talkies and public network mobile phones. After the call ends, the converged communication platform releases all network and communication resources occupied by the channel, such as media gateway ports and occupied network bandwidth, restoring them to an available state for the next scheduling. Through this process, the system completes a closed-loop adaptive scheduling process, from situational awareness to automatic response and communication establishment, and then to automatic resource recovery after problem resolution. The closed-loop adaptive scheduling process refers to a cyclical process that requires no manual intervention, starting with automatically sensing changes in the field environment, adaptively adjusting communication resource configuration according to the changes, and automatically restoring resources to their original state after the demand disappears, forming a complete "perception-decision-execution-recovery" closed loop.

[0124] For example, a temporary dedicated communication channel is established. After a two-minute conversation between a member of the "dismantling team" and the "equipment support expert," the "dismantling team" replaces the battery of the "hydraulic shears" according to the expert's instructions. The new battery updates the real-time operating status data reported by the "hydraulic shears'" sensors to "remaining battery: 100%." ​​The background continuous comparison service captures this data update and re-evaluates the rule "Rule001_LowBatt_In_CoreZone." Since the "remaining battery" of 100% no longer meets the condition of "below 20%", the triggering condition of this rule is no longer met. The on-site situational conditions that triggered the establishment of this channel are no longer met, and the channel dismantling procedure is immediately initiated. The converged communication platform receives the dismantling command and automatically sends a hang-up signal to the "dismantling team's" private network walkie-talkie and the "equipment support expert's" public network mobile phone, ending the call. The converged communication platform then releases the media gateway resources used to connect these two terminals. The system completes a closed-loop adaptive scheduling process where a call is automatically initiated due to low equipment battery and automatically ended when the battery is restored.

[0125] See appendix Figure 2The present invention also proposes a converged communication and dispatch system based on an intelligent command and control console, comprising the following modules:

[0126] The task definition and binding module defines multiple action roles, key equipment resources, and milestone nodes based on preset task types, and establishes static binding relationships between action roles and key equipment resources to generate a comprehensive task instruction set.

[0127] The dynamic situation generation module is used to receive real-time geographical location data of personnel and real-time operational status data of key equipment resources, match them according to the comprehensive mission instruction set, and generate a dynamic resource situation map.

[0128] The scheduling rule establishment module is used to analyze the dynamic resource situation map, set a communication scheduling strategy that uses the logical combination of personnel status and the operating status of key equipment resources bound to that personnel as the trigger condition, and form a resource linkage scheduling rule library.

[0129] The trigger condition comparison module is used to continuously compare the real-time data in the dynamic resource status map with the trigger conditions in the resource linkage scheduling rule base. When the trigger conditions are met, it is determined to be a valid trigger and a scheduling trigger signal is generated.

[0130] The scheduling instruction generation module is used to parse the scheduling trigger signal, retrieve the preset communication action from the resource linkage scheduling rule base based on the scheduling trigger signal, and package the communication action into an automated scheduling instruction package.

[0131] The communication execution linkage module sends automated scheduling instruction packages to the converged communication platform. The underlying converged communication platform performs cross-system and cross-standard resource coordination and signaling conversion, and establishes temporary task-specific communication channels for designated communication participants.

[0132] The resource recycling management module monitors temporary task-specific communication channels in real time. When the real-time status in the dynamic resource situation map no longer meets the triggering conditions for establishing the channel, the channel removal procedure is initiated to release communication resources and complete closed-loop adaptive scheduling.

[0133] It should be noted that the formulas described above, through the principle of dimensional consistency and mathematical standardization methods (such as normalization, dimensionless parameter conversion, or unit system unification), can translate physical quantities with different properties into unitless standard values ​​or superimposed parameters of the same dimension. This eliminates the interference of different dimensions on the computational logic, allowing the formulas to retain the original data distribution characteristics while possessing mathematical rationality and adaptability to objective laws. The descriptions are merely exemplary embodiments of the present invention and should not be construed as limiting the scope of the invention.

[0134] Each of the modules can be implemented in whole or in part through software, hardware, or a combination thereof. It supports hardware embedded in or independent of the processor in the computer device, and also supports software stored in the memory of the computer device, so that the processor can call and execute the operations corresponding to each of the above modules.

[0135] It should be noted that the human information (including but not limited to human device information and personal information) and data (including but not limited to data used for analysis, data stored and data displayed) involved in this invention are all information and data authorized by the human body or fully authorized by all parties. The collection, use and processing of related data require relevant legal standards.

[0136] The above embodiments are only used to illustrate the technical solutions of the present invention, and are not intended to limit it. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of the present invention, and should all be included within the protection scope of the present invention.

Claims

1. A converged communication scheduling method based on an intelligent command and control console, characterized in that, Includes the following steps: S1. Based on the preset task type, define multiple action roles, key equipment resources and milestone nodes, and establish a static binding relationship between action roles and key equipment resources to generate a comprehensive task instruction set; S2. Receive real-time geographical location data of personnel and real-time operational status data of key equipment resources, match them according to the comprehensive mission instruction set, and generate a dynamic resource situation map. S3. Analyze the dynamic resource situation map, set a communication scheduling strategy that uses the logical combination of personnel status and the operating status of key equipment resources bound to that personnel as the trigger condition, and form a resource linkage scheduling rule base. To establish a resource-linked scheduling rule base, the following steps are included: Analyze the potential state changes of each element in the dynamic resource situation map that indicate specific risks or events, and set communication scheduling strategies accordingly; For each communication scheduling strategy, a logical "AND" combination consisting of personnel-level status and equipment-level status is set as its trigger condition. Each trigger condition is pre-associated with multiple corresponding communication actions, including the defined communication operation type, participants, and priority. The communication scheduling strategies, which include triggering conditions and associated communication actions, are collected and stored to form a resource-linked scheduling rule base. S4. Continuously compare the real-time data in the dynamic resource status map with the trigger conditions of the resource linkage scheduling rule base. When the trigger conditions are met, it is determined to be a valid trigger and a scheduling trigger signal is generated. S5. Parse the scheduling trigger signal, retrieve the preset communication action from the resource linkage scheduling rule base based on the scheduling trigger signal, and package the communication action into an automated scheduling instruction package; S6. Issue automated scheduling instruction packages to the underlying converged communication platform, which then performs cross-system and cross-standard resource coordination and signaling conversion to establish temporary task-specific communication channels for designated communication participants. S7. Real-time monitoring of temporary task-specific communication channels. When the real-time status in the dynamic resource situation map no longer meets the triggering conditions for establishing the channel, the channel teardown procedure is initiated to release communication resources and complete closed-loop adaptive scheduling.

2. The fusion communication scheduling method based on an intelligent command and control console according to claim 1, characterized in that, Generating a comprehensive task instruction set includes the following steps: Based on the specific mission type, multiple action roles, required key equipment resources, predetermined activity geographical areas of key missions, and milestone nodes in the process are predefined in the command console. Establish static binding relationships between action roles and key equipment resources, predetermined activity geographical areas and milestone nodes, and clarify the responsibilities and relationships of each element in the mission; All elements and their static binding relationships are stored in a structured manner, and together they are constructed and output as a comprehensive task instruction set.

3. The fusion communication scheduling method based on an intelligent command and control console according to claim 1, characterized in that, Generating a dynamic resource situation map includes the following steps: Continuously receive and analyze real-time geographic location data proactively reported by the communication terminals of various personnel through the wireless network; It synchronously receives and parses real-time operating status data actively reported by the built-in sensors of key equipment resources, including the online status of the equipment, remaining power or working mode. The acquired real-time geographical location and real-time operational status data are matched and dynamically associated based on the static binding relationship in the comprehensive task instruction set, and a dynamic resource situation map is generated on the visualization interface.

4. The fusion communication scheduling method based on an intelligent command and control console according to claim 1, characterized in that, Generating a scheduling trigger signal includes the following steps: The personnel locations and equipment operating status updated in real time in the dynamic resource situation map are compared cyclically with the various trigger conditions in the resource linkage scheduling rule base. When the real-time state combination at a certain moment completely satisfies the logical condition of a certain rule, it is determined as a valid trigger; Based on this valid trigger, a snapshot of the on-site data at the trigger moment is captured and a unique identifier of the trigger rule is encapsulated to jointly generate a scheduling trigger signal.

5. The fusion communication scheduling method based on an intelligent command and control console according to claim 1, characterized in that, Package communication actions into automated scheduling instruction packages, including the following steps: Based on the rule identifier contained in the scheduling trigger signal, the preset communication action is retrieved from the resource linkage scheduling rule base; The retrieved communication action parsing dynamically resolves the communication participants defined in the communication action into specific target terminal addresses based on the real-time binding relationship in the dynamic resource situation map. The communication mode and priority defined in the communication action are mapped to the channel type code and execution priority value that can be recognized by the underlying communication platform; The target terminal address, channel type, and execution priority-related execution parameters obtained after parsing and mapping are encapsulated to form an automated scheduling instruction package.

6. The fusion communication scheduling method based on an intelligent command and control console according to claim 1, characterized in that, Establishing a temporary, dedicated communication channel for the mission includes the following steps: The automated scheduling instruction package is sent to the underlying converged communication platform through an internal interface; The converged communication platform parses the contents of the automated scheduling instruction packet and automatically completes resource coordination and signaling conversion across systems and network standards based on the differences in target terminal addresses. Establish point-to-point or point-to-many real-time communication links between the target terminal addresses specified in the automated scheduling instruction package; Newly established communication links closely associated with specific scheduling events are marked as temporary task-specific communication channels.

7. The fusion communication scheduling method based on an intelligent command and control console according to claim 1, characterized in that, To complete closed-loop adaptive scheduling, the following steps are included: After the temporary mission-dedicated communication channel is established, its call quality and call duration are monitored. The continuously operating comparison mechanism continues to monitor the on-site situation and automatically initiates the channel dismantling procedure when it finds that the situation conditions that initially triggered the establishment of the channel are no longer met. According to the channel dismantling procedure, the converged communication platform automatically dismantles the temporary channel and releases all network and communication resources it occupies, restoring it to an available state; Complete the full closed-loop adaptive scheduling process.

8. The converged communication scheduling method based on an intelligent command and control console according to claim 1, characterized in that, For each communication scheduling policy, a logical "AND" combination consisting of personnel-level status and equipment-level status is set as its trigger condition, including the following steps: Personnel status is defined as a specific action role entering a preset geofence area, or a change in their task status; The equipment dimension status is defined as a real-time operational status data parameter of a key equipment resource that is bound to the action role; Two different states are bound together by a logical AND operation to form the triggering condition for a composite event.

9. A converged communication and dispatch system based on an intelligent command and control console, characterized in that, Includes the following modules: The task definition and binding module defines multiple action roles, key equipment resources, and milestone nodes based on preset task types, and establishes static binding relationships between action roles and key equipment resources to generate a comprehensive task instruction set. The dynamic situation generation module is used to receive real-time geographical location data of personnel and real-time operational status data of key equipment resources, match them according to the comprehensive mission instruction set, and generate a dynamic resource situation map. The scheduling rule establishment module is used to analyze the dynamic resource situation map, set a communication scheduling strategy that uses the logical combination of personnel status and the operating status of key equipment resources bound to that personnel as the trigger condition, and form a resource linkage scheduling rule library. To establish a resource-linked scheduling rule base, the following steps are included: Analyze the potential state changes of each element in the dynamic resource situation map that indicate specific risks or events, and set communication scheduling strategies accordingly; For each communication scheduling strategy, a logical "AND" combination consisting of personnel-level status and equipment-level status is set as its trigger condition. Each trigger condition is pre-associated with multiple corresponding communication actions, including the defined communication operation type, participants, and priority. The communication scheduling strategies, which include triggering conditions and associated communication actions, are collected and stored to form a resource-linked scheduling rule base. The trigger condition comparison module is used to continuously compare the real-time data in the dynamic resource status map with the trigger conditions in the resource linkage scheduling rule base. When the trigger conditions are met, it is determined to be a valid trigger and a scheduling trigger signal is generated. The scheduling instruction generation module is used to parse the scheduling trigger signal, retrieve the preset communication action from the resource linkage scheduling rule base based on the scheduling trigger signal, and package the communication action into an automated scheduling instruction package. The communication execution linkage module sends automated scheduling instruction packages to the converged communication platform. The underlying converged communication platform performs cross-system and cross-standard resource coordination and signaling conversion, and establishes temporary task-specific communication channels for designated communication participants. The resource recycling management module monitors temporary task-specific communication channels in real time. When the real-time status in the dynamic resource situation map no longer meets the triggering conditions for establishing the channel, the channel removal procedure is initiated to release communication resources and complete closed-loop adaptive scheduling.

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