Coding method of nine-lamp color protocol and lamplight control system based on protocol

Abstract

The invention discloses an encoding method of a nine-lamp color protocol and a light control system based on the protocol, and relates to the technical field of government affair execution state monitoring, in particular to the encoding method of the nine-lamp color protocol and the light control system based on the protocol. The method comprises the following steps: defining protocol standards of mapping government affair execution state consistency coefficients into four colors of cyan, cub, yellow and red; collecting government affair execution data in real time; calculating coefficients according to the data and generating corresponding color codes; synchronizing the code to a central monitoring terminal for visual display; and the cascade reaction of nationwide broadcasting, highest institution forced alarm and real-name notification pushing is automatically triggered in red light. The system supports threshold dynamic adjustment, data penetration query, public query and mode switching and can be implemented based on a dedicated chip or a computer program, and data can be stored in a distributed account book to ensure that the data cannot be tampered. According to the invention, real-time, visual and graded early warning and automatic supervision of the government affair execution state are realized.

Description

Technical Field

[0001] This invention relates to the field of government affairs execution status monitoring technology, specifically to the encoding method of the Jiuxiaodeng color protocol and the lighting control system based on the protocol. Background Technology

[0002] As the modernization of the national governance system and governance capacity deepens, the need for real-time monitoring, accurate evaluation, and dynamic early warning of the efficiency of government execution at all levels, the consistency of policy implementation, and the quality of public services is becoming increasingly urgent. Traditional government supervision and performance evaluation models rely heavily on periodic report summaries, special inspections, or post-audits, which suffer from problems such as information lag, long feedback chains, and limited transparency. This "results-oriented" rather than "process-controllable" supervision approach makes it difficult to promptly detect deviations, obstacles, or diminishing effectiveness in the policy implementation process, potentially missing the optimal intervention opportunity and affecting the implementation of major national strategic deployments and policies related to people's livelihoods.

[0003] In the context of informatization, although various government data platforms, collaborative office systems, and big data monitoring methods have been widely used, challenges remain in transforming massive, multi-dimensional government execution data into intuitive and easily understandable decision support information. Existing technical solutions often focus on data statistics and visualization, lacking a universal protocol and linkage mechanism that directly links complex assessment results with standardized, highly warning visual signals. When assessing the macro-level situation, management needs to manually interpret issues from complex data charts, which is inefficient. For the real-time status of the execution endpoints (such as grassroots townships and public institutions), there is a lack of effective "one-click" monitoring tools. At the same time, the public lacks convenient and authoritative channels to access information about government execution that directly affects their interests.

[0004] On the other hand, current standards for measuring policy implementation consistency vary, and assessment results are usually presented in the form of scores, percentages, or written reports. Horizontal comparisons between different regions and departments are not intuitive enough, making it difficult to form a unified "governance language." When serious deviations in implementation or major risks occur, the processes for issuing and escalating early warning signals and triggering cross-departmental collaborative responses are often not automated or rigid enough, relying on manual judgment and hierarchical reporting, which may delay handling.

[0005] Furthermore, ensuring the authenticity, reliability, and immutability of assessment data throughout the entire process of collection, transmission, calculation, and presentation is the technological cornerstone for building an authoritative oversight system. Existing systems, in terms of data tamper prevention and end-to-end traceability, largely rely on centralized database access control, which presents single-point-of-failure risks and internal operational vulnerabilities, leaving room for improvement in building public trust.

[0006] Therefore, there is an urgent need to develop an innovative and standardized coding method and control system that can map the core performance indicators of government administration into highly simplified visual signals (such as colors) in real time and objectively. This system would then form the core of a complete closed loop, from data collection and intelligent assessment to real-time display, automatic early warning, and coordinated response. Such a system would not only provide decision-makers with an immediate and intuitive "governance dashboard," enabling them to "view the world on one screen and manage the entire process on one network," but also ensure the consistency and comparability of assessments through standardized protocols, improve emergency response speed through rigid automatic triggering mechanisms, and enhance social supervision and government credibility through appropriate information disclosure. Summary of the Invention

[0007] The purpose of this invention is to provide an encoding method for the Jiuxiaodeng color protocol and a lighting control system based on the protocol. By defining a standardized mapping relationship between government execution status and color signals, it enables real-time, intuitive, quantitative monitoring and automatic early warning of policy execution status at all levels of units, thereby building a nationally unified, responsive, transparent and open platform for supervising and supporting government execution.

[0008] To achieve the above objectives, the present invention provides the following technical solution: an encoding method for the Jiuxiao light color protocol and a lighting control system based on this protocol, the specific implementation process of which includes the following steps: Step 1: In the system design phase, the technical standard of the Nine Lights color protocol is predefined, which clearly maps the consistency coefficient of government execution status to four color status outputs: cyan, blue, yellow, and red. This mapping relationship is solidified in the system's underlying layer in the form of a parameter configuration table.

[0009] Step 2: Through the government data collection system deployed in various units across the country, relevant execution process data and result data of each unit are collected in real time according to the preset time period and data format specifications, and transmitted to the data processing center.

[0010] Step 3: Based on the received execution data, the data processing center calculates the execution consistency coefficient of each unit in the current time period using the built-in consistency calculation model. Then, according to the color mapping relationship set in the protocol standard described in Step 1, it automatically matches and generates the corresponding standard color code.

[0011] Step 4: The generated color code is transmitted to the central monitoring terminal in real time via a secure communication link through a dedicated system communication protocol data packet. After receiving the data, the central monitoring terminal displays the corresponding light color on a graphical interface and supports status history backtracking.

[0012] Step 5: When the system determines that the generated color code is red, it automatically triggers a preset multi-level linkage process. This process includes: sending status broadcast information to relevant terminals nationwide; sending the highest level of audible and visual alarm signal to the dedicated terminal of the highest decision-making body; and automatically generating a standardized notification document and pushing it to the relevant responsible units.

[0013] Furthermore, in the specific parameter settings of the Nine Heavens Light Color Protocol Standard, the trigger condition for the cyan light color state is that the calculated consistency coefficient value is greater than or equal to 0.98; the trigger condition for the pale blue light color state is that the consistency coefficient value is between 0.90 (inclusive) and 0.98; the trigger condition for the yellow light color state is that the consistency coefficient value is between 0.80 (inclusive) and 0.90; and the trigger condition for the red light color state is that the consistency coefficient value is less than 0.80.

[0014] Furthermore, the specific values ​​of the consistency coefficient thresholds corresponding to each color in the color protocol standard are not fixed, but can be dynamically adjusted and updated by the highest decision-making body according to actual management needs through the authorization management interface provided by the system. The adjusted parameters will take effect immediately.

[0015] Furthermore, the automatically generated notification document mentioned in step five is a real-name notification document containing the name of the specific responsible unit; after the document is generated, the system will automatically push it to the internal office system of the designated supervisory agency in accordance with the preset document flow rules, and enter its standardized work processing flow.

[0016] Furthermore, after an account with the corresponding operating permissions logs in, the central monitoring terminal supports one-click penetration query through the light color indicators on the graphical interface, thereby viewing the detailed status of any subordinate unit (covering township-level units and various public institutions) corresponding to that light color, including the specific data source, calculation process and original data entries that constitute that status.

[0017] Furthermore, the system is equipped with a public query service interface, through which individuals who have undergone real-name authentication can query the real-time light status information of their current administrative region.

[0018] Furthermore, the system has a built-in mode switching mechanism that allows the overall calculation and evaluation mode to be switched from the standard mode to the "people's livelihood priority" mode when certain preset conditions are met. In this mode, the calculation protocol on which the system generates color codes will be adjusted, and its calculation model will focus on adopting specific indicator datasets related to people's livelihood security.

[0019] Furthermore, the color protocol encoding, parsing, and data processing logic involved in the method can be specifically designed and fabricated as a dedicated protocol processing chip hardware. This chip can be integrated into relevant terminal devices to efficiently and quickly complete the parsing and generation of Jiuxiaodeng protocol data packets.

[0020] Furthermore, all the processing steps and logic of the method can be specifically implemented as a series of executable instructions stored in a computer storage medium (such as optical disc, hard disk, solid-state storage). When these instructions are read and executed by the system's processor, the encoding and lighting control functions described in claim 1 can be realized.

[0021] Furthermore, each color code generated in step three, along with its associated raw data, intermediate calculation data, timestamps, and other information, is recorded in real-time and synchronously in a data storage system based on distributed ledger technology. This design ensures the immutability of all critical data, the complete traceability of the operation process, and the consistency of data records at each node.

[0022] This invention provides an encoding method for the Jiuxiao light color protocol and a lighting control system based on the protocol, which has the following beneficial effects: 1. This system establishes a nationwide unified visual supervision system for government implementation, transforming abstract policy implementation status into intuitive color signals. Through a four-color hierarchical display of cyan, blue, yellow, and red, management agencies at all levels can quickly identify the consistency level of government implementation within their jurisdictions, significantly improving supervision efficiency. This design aligns with the natural cognitive patterns of humans regarding color warnings, making cross-level and cross-regional comparisons of work status readily apparent. In particular, the system automatically triggers a red light warning for units with an implementation consistency coefficient below 0.8, creating mandatory supervisory pressure. This standardized and visual management approach helps to break down the information filtering and embellishment that may exist in traditional written reports, promoting a more transparent and standardized government implementation process.

[0023] 2. The system implements a closed-loop management mechanism from data collection to early warning and response, constructing a complete supervision chain. When a red light status is detected, the system automatically triggers a three-tiered response: nationwide broadcast, terminal alarm at the highest level, and generation and push of a real-name notification document. This ensures that significant execution deviations can be detected immediately and corrective procedures can be initiated. This automated cascading response mechanism significantly shortens the time interval from problem discovery to initiation of response, avoiding delays that may occur with traditional hierarchical reporting. In particular, the design of automatically pushing real-name notification documents to the supervisory agency's workflow directly embeds the supervision link into the administrative operation process, forming institutionalized supervisory constraints and enhancing the seriousness and standardization of government execution.

[0024] 3. The system design emphasizes a balance between operability and oversight authority, ensuring effective supervision from higher-level departments while providing a clear data traceability channel. The central monitoring terminal supports one-click access query within authorized limits, allowing regulators to view detailed data sources down to the township and public institution levels. This design satisfies both macro-level oversight needs and ensures the accuracy of micro-level supervision. Simultaneously, verified members of the public can query the real-time light status of their area, appropriately increasing public participation in oversight while ensuring information security. This multi-layered, differentiated access control design maintains the authority of the management system while providing clear basis and boundaries for oversight through technological means.

[0025] 4. The system possesses excellent adaptability and scalability, enabling dynamic optimization based on actual management needs. Color protocol thresholds can be dynamically adjusted by the highest decision-making body according to work requirements, ensuring that evaluation standards adapt to the management requirements of different development stages. The system also supports switching to a "people's livelihood priority" mode, in which a calculation protocol emphasizing livelihood security indicators is used to generate color codes. This flexibility allows the system to serve different policy priorities. These designs reflect an effective combination of management philosophy and tools, making the system not only a static monitoring tool but also a technical support platform for implementing key work deployments at different stages.

[0026] 5. The system ensures data authenticity and process reliability through technological innovation, providing a solid technical foundation for supervision. Color codes and related data are recorded in real time in a system based on distributed ledger technology. Utilizing its immutability and traceability, the system ensures the authenticity and reliability of the original data, preventing potential data manipulation at the source. The method is specifically implemented through the design of a dedicated protocol processing chip, improving the efficiency and security of data parsing and transmission. These technical safeguards ensure that the entire system operates on a reliable data foundation, enhancing the persuasiveness and credibility of supervisory conclusions and providing a more reliable basis for management decisions. Attached Figure Description

[0027] To more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings in the following description are merely exemplary, and those skilled in the art can derive other embodiments based on the provided drawings without creative effort.

[0028] Figure 1 This is the main flowchart of the system of the present invention; Figure 2 This is a flowchart illustrating the protocol standard and coefficient mapping of this invention. Figure 3This is a flowchart of the red lamp cascade reaction of the present invention; Figure 4 This is a flowchart of the data query and traceability process of this invention; Figure 5 This is a flowchart illustrating the system characteristics and extensions of the present invention. Detailed Implementation

[0029] Exemplary embodiments will now be described in detail, examples of which are illustrated in the accompanying drawings. When the following description relates to the drawings, unless otherwise indicated, the same numerals in different drawings denote the same or similar elements. The embodiments described in the following exemplary embodiments do not represent all embodiments consistent with this disclosure. Rather, they are merely examples of apparatuses consistent with some aspects of this disclosure as detailed in the appended claims.

[0030] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0031] How to use: I. System Overview This system is a government affairs execution status visualization and alarm control system built on the "Nine Heavens Light Color Protocol". The system maps the consistency coefficient of government affairs execution of units at all levels into four color light codes: cyan, blue, yellow, and red in real time. It is centrally displayed and intelligently managed through a central monitoring terminal, aiming to improve the transparency, supervision efficiency, and response speed of government affairs execution.

[0032] II. Preparation and Start-up Before Use 1. Protocol Standard Confirmation: The highest decision-making body must predefine and load the "Nine Heavens Lamp Color Protocol" standard, clearly defining the mapping relationship between colors and consistency coefficients. The default standard is: Cyan (≥0.98), Pale Blue (0.90-0.98), Yellow (0.80-0.90), and Red (<0.80). This threshold allows the highest decision-making body to dynamically adjust it according to management needs.

[0033] 2. System Deployment: The system will be deployed on a dedicated government network to ensure connectivity between the government data collection system and data sources at all levels. The central monitoring terminal will be installed in an authorized monitoring center.

[0034] 3. Permission Configuration: Configure system access and operation permissions for operators at different levels and with different functions.

[0035] III. Standard Operating Procedures 1. Data collection and calculation: After the system starts, the government data collection module automatically collects the preset execution data of all levels of units (down to townships and public institutions) across the country in real time.

[0036] 2. Coefficient Calculation and Color Encoding: Based on the collected data, the system automatically calculates the current "execution consistency coefficient" for each unit and generates the corresponding color code according to the loaded protocol standard (such as the default threshold mentioned above). This process can be efficiently completed by a dedicated protocol processing chip.

[0037] 3. Visualized Monitoring: The generated color codes are synchronized to the central monitoring terminal in real time via a dedicated communication protocol. Operators can intuitively view the light color status (cyan, light blue, yellow, red) of each unit in the form of maps, lists, etc. on the terminal interface.

[0038] 4. Detailed Penetration Query: Operators with the appropriate permissions can use the central monitoring terminal to perform a one-click penetration query on any subordinate unit (including townships and public institutions) displaying a light color, and view the detailed data source, calculation process, and related records for its light color determination.

[0039] 5. Public Inquiry Service: Members of the public who have completed real-name authentication can inquire about the real-time light status of their area and learn about the general situation of local government operations through authorized platforms or ports.

[0040] IV. Alarm and Emergency Response Procedures (Red Light Trigger) When the system determines that a unit's consistency coefficient is below 0.80, i.e., when generating the "red light" color code, the following cascading reaction will be automatically triggered: 1. Nationwide broadcast: The system broadcasts a red light status notification to specific levels and management scopes within the internal network.

[0041] 2. Mandatory Alarm: Red light information and alarms are synchronized to the highest authority's terminal in real time, triggering mandatory alarms such as sound and light, ensuring that the highest decision-making body is informed as soon as possible.

[0042] 3. Notification generation and push: The system automatically generates a real-name notification document containing the information of the responsible unit, and pushes it to the designated supervisory agency's workflow according to the preset process to initiate the supervision and enforcement procedure.

[0043] V. Application of Special Modes During specific periods or for specific matters, the highest decision-making body may authorize the system to switch to a "people's livelihood priority" mode. In this mode, the calculation protocol upon which the system generates color codes will focus on indicators related to people's livelihood security, reflecting the implementation status in that area.

[0044] VI. Data Management and Traceability All color codes, associated execution consistency coefficients, and generation process data generated during system operation are recorded in real time in a storage system based on distributed ledger technology. This ensures the immutability and traceability of data throughout the entire chain, providing a reliable basis for supervision, auditing, and review. Example:

[0045] Example 1: Standard Monitoring and Query Process This embodiment specifically demonstrates the standard application process of the Jiuxiaodeng color protocol and lighting control system in daily government affairs execution monitoring. After the system starts, the government affairs data acquisition subsystem automatically obtains preset government affairs execution data in real time from administrative units at all levels across the country (including provinces, cities, counties, townships, and related public institutions). This data is transmitted to the central processing module, which calculates the "consistency coefficient of government affairs execution status" of each unit according to the defined "Jiuxiaodeng color protocol standard". The calculation process strictly follows the threshold range set in the protocol, mapping the consistency coefficient to four color codes: cyan, light blue, yellow, and red. For example, when the consistency coefficient of a unit falls into the preset yellow light range, the system generates the corresponding yellow light indicator.

[0046] The generated color codes are pushed in real-time to the central monitoring terminal deployed in the central monitoring hall via a dedicated encrypted communication protocol. On the terminal's giant electronic map, the light status of each region across the country is highlighted with the corresponding color, providing macro-level situational awareness. At this moment, a regulatory official with high-level privileges noticed that a prefecture-level city under a certain province was displayed as "blue light" on the map. To investigate the reason, he performed a "one-click penetration query" operation on the icon of the prefecture-level city through the terminal interface. The system responded immediately, displaying a detailed list of light distribution for all districts and counties and major public institutions under the city's jurisdiction. The official further clicked on a district or county displayed as "yellow light," and the interface immediately unfolded a detailed data dashboard for the district or county's light status determination, clearly listing the data sources, calculation weights, and recent fluctuation trends of various key indicators affecting its consistency coefficient, thus achieving precise positioning and problem tracing from macro to micro levels.

[0047] Example 2: Triggering of Red Light Alarm Cascade Reaction This embodiment details the automated, multi-level alarm and handling process triggered when the system detects a serious execution deviation, i.e., generates a red light code. In routine monitoring, the system, through real-time calculations, discovers that a major transportation hub construction project in a border province has several key progress and quality indicators whose "execution consistency coefficients" consistently fall below the lower threshold set for a red light in the protocol standard. The system's core protocol processing module (which can be implemented by a dedicated protocol processing chip) immediately determines the unit's overall status as "red light" and generates the corresponding red light protocol data packet.

[0048] Once the red light signal is generated, it immediately triggers a pre-set three-tiered cascading response mechanism. At the first level, the system broadcasts the unit's red light status nationwide on the government intranet's system-wide monitoring interface and in specific high-level management communication groups, providing an initial warning. At the second level, the alarm information is forcibly pushed to the dedicated monitoring terminal in the office of the head of the highest decision-making body via a dedicated communication protocol, triggering a red flashing light and a high-frequency alert, achieving mandatory alarm at the highest-level terminal and ensuring that core decision-makers are aware of it immediately. Simultaneously, the third level of response begins: based on the unit's information, the system automatically calls a template to generate a real-name notification document containing details such as the unit's full name, the person in charge, and the main deviations. Following a pre-set workflow, this document is automatically pushed to the internal supervision system of designated supervisory bodies such as the Central Commission for Discipline Inspection and the National Supervisory Commission, initiating formal accountability and supervision procedures. The entire process requires no manual intervention, achieving a seamless connection from problem identification to supervision initiation.

[0049] Example 3: Application of the "People's Livelihood First" Model This embodiment demonstrates how the system switches to a dedicated computing protocol to focus on the livelihood sector under specific policy guidance. During the "Special Action Month for Livelihood Security" announced by the state, the highest decision-making body authorized the entire system to temporarily switch to a "Livelihood Priority" mode through the advanced management backend of the central monitoring terminal. In this mode, the indicator system and weighting protocol on which the system's underlying calculation of the "execution consistency coefficient" is dynamically adjusted. The system will automatically reduce the weight of some economic development indicators and significantly increase the collection frequency and calculation proportion of livelihood security indicators directly related to "employment, education, medical care, social security, and housing."

[0050] After the switch is complete, the color codes displayed on the monitoring panels of all levels of units will be updated in real time, reflecting the implementation status based on the new protocol and focusing on the people's livelihood. For example, an industrial city that displays a "dark light" in the standard mode due to a slightly slower progress in fixed asset investment may turn into a "green light" in the "people's livelihood priority" mode because of its excellent performance in livelihood indicators such as stable employment and timely pension payments. Conversely, a region that displays a "green light" in the standard mode may turn into a "yellow light" or "red light" if its rate of resolving people's livelihood complaints is significantly low. This mode switching function enables the highest decision-making body to flexibly and intuitively guide and supervise the phased shift of the national work focus, ensuring that the achievement of core policy objectives in a specific period is highlighted and monitored.

[0051] Example 4: Public Oversight and Data Credibility Assurance This example demonstrates the system's design in ensuring the public's right to know and data reliability. A resident of District B in City A wants to understand the efficiency of local government operations. He accesses the "Light Status Inquiry" portal provided by the government service platform via his smartphone. After completing real-name authentication through facial recognition, the system authorizes his access. The citizen selects his location, "District B, City A," in the query interface, and the system immediately returns the current real-time light status of that district (e.g., "Azure Light"), along with a brief status description (e.g., "Overall execution is good"). This function fulfills the need for authenticated citizens to inquire about the real-time light status of their area, enhancing public understanding and oversight in a transparent manner.

[0052] To ensure the absolute credibility and non-repudiation of the light color results and all historical records retrieved by the citizen, all data flow and storage in this system are built on distributed ledger technology. From government data collection and consistency coefficient calculation to the generation of the final color code, key data generated at each step (including raw data hashes, calculation parameters, generation timestamps, and operation logs) is recorded in real time in a distributed ledger maintained by multiple nodes. This means that no single institution or individual can tamper with the generated light color records and their calculation basis afterward. When it is necessary to conduct a retrospective audit of a red light alarm at a specific historical moment, auditors can retrieve the complete, tamper-proof data chain on the blockchain to verify the authenticity of the data collection at that time, the compliance of the calculation process, and the accuracy of the results, thereby ensuring the immutability and traceability of the entire system's data.

[0053] Example 5: Dynamic Protocol Adjustment and System Implementation This embodiment illustrates the flexibility of the protocol standard and two specific implementation forms of the system. Following a macroeconomic policy adjustment, the highest decision-making body deemed it necessary to adaptively optimize the standards for government implementation. Decision-makers access the "Nine Lights Protocol Standard Configuration" module through the highest-level management interface of the central monitoring terminal. Here, decision-makers can dynamically adjust the threshold ranges of the "execution consistency coefficient" corresponding to the four light colors—cyan, azure, yellow, and red—based on new management requirements. For example, the threshold standard for the "cyan light" can be appropriately increased, or the range for the "yellow light" can be narrowed to convey a more stringent or precise management direction. Once the adjustment instruction is confirmed and saved, it will be immediately distributed to all data processing nodes nationwide. Subsequently, the system's calculation and generation of color codes will be entirely based on the new threshold standard, reflecting the feature that the protocol thresholds can be dynamically adjusted by the highest decision-making body.

[0054] From the perspective of specific system implementation, there are two main approaches. One is hardware integration: the encoding, parsing, and communication rules of the Jiuxiaodeng color protocol are designed and embedded into a dedicated protocol processing chip using a hardware description language. This chip can be embedded in the network interface of data acquisition units at various levels or the central server, specifically for efficiently and quickly packaging and parsing data packets conforming to the Jiuxiaodeng protocol standard, greatly improving the system's performance in processing real-time data streams. The other is software deployment: all the method steps described in the claims are written into a series of executable instructions, forming complete software code, and stored in computer storage media (such as hard disks or solid-state drives). When the instructions in this medium are executed by the server's processor, all encoding and control functions from data acquisition, coefficient calculation, color encoding to alarm push can be fully implemented, featuring flexible deployment and convenient upgrades.

[0055] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A coding method for the Jiuxiao light color protocol and a lighting control system based on the protocol, characterized in that, Includes the following steps: Step 1: Define the Nine Heavens Lamp color protocol standard, and map the consistency coefficient of government execution status to four colors: cyan, blue, yellow, and red. Step 2: Collect execution data from all levels of government units across the country in real time through the government data collection system; Step 3: Calculate the execution consistency coefficient of each unit based on the execution data, and generate the corresponding color code according to the protocol standard; Step 4: Synchronize the color codes to the central monitoring terminal in real time via a dedicated communication protocol for visual display; Step 5: When the color code is red, a cascading reaction is automatically triggered, including nationwide broadcasting, mandatory alarm at the highest authority's terminal, and the generation and push of notification documents.

2. The encoding method of the Jiuxiao light color protocol and the lighting control system based on the protocol according to claim 1, characterized in that: In the aforementioned Jiuxiaodeng color protocol standard, the consistency coefficient for cyan lights is ≥0.98, for azure lights it is 0.90 to 0.98, for yellow lights it is 0.80 to 0.90, and for red lights it is <0.

80.

3. The encoding method for the Jiuxiao light color protocol according to claim 1 or 2 and the lighting control system based on the protocol, characterized in that: The threshold values ​​for the color protocol standard can be dynamically adjusted by the highest decision-making body as needed.

4. The encoding method of the Jiuxiao light color protocol and the lighting control system based on the protocol according to claim 1, characterized in that: The notification document mentioned in step five is a real-name notification document, and the workflow automatically pushes it to the designated supervisory agency.

5. The encoding method of the Jiuxiao light color protocol according to claim 1 and the lighting control system based on the protocol, characterized in that: The central monitoring terminal supports authorized operators to perform one-click access queries and view detailed data sources for the light status of any subordinate unit (including townships and public institutions).

6. The encoding method of the Jiuxiao light color protocol and the lighting control system based on the protocol according to claim 1, characterized in that: The system allows verified members of the public to query the real-time light status of their area.

7. The encoding method of the Jiuxiao light color protocol and the lighting control system based on the protocol according to claim 1, characterized in that: The system supports switching to the "People's Livelihood Priority" mode under specific conditions. In this mode, the generation of color codes will adopt a calculation protocol that focuses on indicators related to people's livelihood.

8. The encoding method of the Jiuxiao light color protocol according to claim 1 and the lighting control system based on the protocol, characterized in that: The method is specifically implemented as a dedicated protocol processing chip for efficiently parsing and generating Jiuxiaodeng protocol data packets.

9. The encoding method of the Jiuxiao light color protocol according to claim 1 and the lighting control system based on the protocol, characterized in that: The method is specifically implemented as a computer storage medium containing executable instructions, which, when executed by a processor, implements the encoding and control functions.

10. The encoding method of the Jiuxiao light color protocol according to claim 1 and the lighting control system based on the protocol, characterized in that: The color codes and associated data generated in step three are recorded in real time in a system based on distributed ledger technology to ensure the immutability and traceability of the data.

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