Management system for monitoring carbon emissions of LED street lights

Abstract

The present invention relates to a data management system for LED streetlights to respond to monitoring of AIoT (AI IoT) LED streetlights and carbon reduction MRV diagnosis, and more specifically, to a carbon emission information management system for LED streetlights that aims to provide a platform for collecting information on LED streetlights, monitoring carbon emissions of LED streetlights based on the collected information, automatically calculating carbon emissions and carbon reduction amounts, and automatically generating reports. The present invention aims to provide an automatic carbon emission calculation management system for LED streetlights that enables carbon emission trading and carbon neutrality response by providing carbon emission and reduction information, by providing a platform that monitors carbon emissions of LED streetlights, automatically calculates carbon emissions and carbon emission reductions based on data collected through monitoring, and provides a tool for automatically generating CDM (Clean Development Mechanism) reports.

Description

Technology Field

[0001] The present invention relates to a data management system for LED streetlights to respond to monitoring of AIoT (AI IoT) LED streetlights and carbon reduction MRV diagnosis, and more specifically, to a carbon emission information management system for LED streetlights that aims to provide a platform for collecting information on LED streetlights, monitoring carbon emissions of LED streetlights based on the collected information, automatically calculating carbon emissions and carbon reduction amounts, and automatically generating reports. Background Technology

[0002] Measurement, Reporting, and Verification (MRV) of carbon emissions is a core foundation for inducing carbon reduction and promoting carbon neutrality in companies, and MRV refers to a series of systems related to the measurement, monitoring, reporting, and verification of carbon emissions.

[0003] Recently, due to the expansion of low-carbon trade barriers, requirements for Carbon Measurement and Verification (MRV) for export companies and global corporate partners are increasing. Furthermore, as carbon regulations such as the EU Carbon Border Adjustment Mechanism (CBAM) and battery regulations are being strengthened, it is now necessary to measure and submit carbon emissions when exporting to the EU in relevant sectors.

[0004] The aforementioned Carbon Border Adjustment Mechanism mandates the reporting of carbon emissions by product and the purchase of emission allowances when exporting goods such as steel and aluminum to the EU, while the battery regulations mandate the reporting of carbon footprints and the labeling of grades when exporting batteries to the EU.

[0005] Furthermore, with the expansion of ESG management, requirements for carbon emission submissions from companies within their own supply chains are increasing, led by global conglomerates. Domestic companies are also expected to see a rise in demand for carbon emission measurement to respond to the demands of domestic partners and to secure financial support linked to reduction performance.

[0006] To raise the Nationally Determined Contribution (NDC) target, the introduction of overseas carbon credits must be increased; however, since the methodologies for importing overseas credits are not diverse and the amount of credits is small, countermeasures are required. The problem to be solved

[0007] Accordingly, the present invention aims to provide an automatic carbon emission calculation management system for LED streetlights that enables carbon emission trading and carbon neutrality response by providing carbon emission and reduction information, by providing a platform that monitors carbon emissions of LED streetlights, automatically calculates carbon emissions and carbon emission reductions based on data collected through monitoring, and provides a tool for automatically generating CDM (Clean Development Mechanism) reports. means of solving the problem

[0008] The LED street light carbon emission information management system of the present invention is,

[0009] (a). Collect and monitor LED street light information, and generate and manage carbon neutrality information from the monitoring information,

[0010] (b) When collecting LED street light information, junk data is filtered out at the edge based on the status of the LED street light and provided to the server side, thereby enabling efficient data operation, and

[0011] (c) The technical features include generating carbon emission reports for LED street light monitoring information and carbon neutrality information, performing a certification process for the carbon emission reports through a CDM certification company, and enabling the creation and management of carbon trading rights through CDM certification.

[0012] The LED street light carbon emission information management system of the present invention

[0013] It is characterized by including an Edge Lamp Controller Module installed on an LED street light connected to each node via a LoRa communication network, an Edge Gateway that collects LED street light information from the Edge Lamp Controller Module, stores monitoring information of the LED street light from the collected LED street light information in a server or cloud, and transmits LED control information from the server to control the Edge Lamp Controller Module, and a server for storing and managing LED street light monitoring information collected through the Edge Gateway, monitoring electricity consumption and carbon emissions from the LED street light monitoring information and generating carbon emission reports, and managing certification of carbon emission reports through a CDM certification company.

[0014] And in the system of the present invention,

[0015] The above server collects LED street light monitoring information from the edge gateway and stores and manages it in a storage unit; performs fault diagnosis analysis on the collected LED street light monitoring information to generate and manage fault diagnosis and maintenance information; manages electricity usage information for LED street lights by group from the LED street light installation information and generates and manages electricity usage prediction information by group from the electricity usage information; generates carbon emission information for LED street lights by group from the electricity usage information by referencing the LED street light installation information and emission factor reference information, and generates and manages carbon emission prediction information for LED street lights by group; calculates greenhouse gas emission reduction amounts by referencing the group-unit LED street light carbon emissions, carbon emission prediction information, and baseline reference information; generates a carbon emission report based on the calculated greenhouse gas emission reduction amount; transmits the generated carbon emission report to a CDM certification company to request certification; receives certification information from the CDM certification company and generates, stores, and manages carbon trading right information for the carbon emission report; and includes a processor, administrator information, and monitoring management targets. It includes a storage unit that stores information, monitoring information of LED streetlights collected from the edge gateway, and carbon neutrality information, and

[0016] The above administrator information is the administrator's connection information and includes contact information,

[0017] The above-mentioned monitoring management target information is the identification information (Edge node) of the edge lamp control module and edge gateway of the LED street light, and includes location information,

[0018] The monitoring information of the above LED streetlight is monitoring information of the LED streetlight collected through the edge gateway, and includes voltage, current, instantaneous power consumption, and temperature information.

[0019] The monitoring information of the above LED streetlight includes status information of the LED streetlight, and the status information of the LED streetlight includes fault diagnosis information, fault prediction information, and maintenance information.

[0020] The above carbon neutrality information is characterized by including electricity usage by group, electricity usage prediction information by group, carbon emissions by group, carbon emission prediction information by group, greenhouse gas emission reduction amount, and carbon emission report information generated from monitoring information of collected LED streetlights.

[0021] And the above-mentioned system of the present invention is,

[0022] The above processor is,

[0023] Monitoring information regarding the operating status of LED streetlights, location information of LED streetlights diagnosed with abnormal conditions, and energy usage (electricity consumption, greenhouse gas emissions) can be provided as digital maps or 3D graphic information, and a means of inquiry is provided to view information requested by an administrator and provide reports to a connected authenticated administrator.

[0024] The above inquiry means includes a data inquiry unit and a carbon neutrality inquiry unit, wherein the data inquiry unit includes a means for inquiring into monitoring information collected from LED streetlights, and the carbon neutrality inquiry unit includes a means for inquiring into information such as electricity usage by group unit, electricity usage prediction information by group unit, carbon emissions by group unit, carbon emission prediction information by group unit, greenhouse gas emission reduction amount, and carbon emission report information generated from the collected monitoring information of LED streetlights. Effects of the invention

[0025] According to the present invention, it is possible to monitor electricity consumption and greenhouse gas emissions from monitoring information of LED streetlights, and by generating and managing carbon emission information from these monitoring information, it is possible to respond to the carbon emission greenhouse gas emission verification system (MRV), and to provide a platform for supporting the automatic generation of carbon emission reports and certification.

[0026] Furthermore, according to the present invention, smart management of monitoring the operating status of LED streetlights and remote dimming control of LED streetlights is possible.

[0027] By filtering out unnecessary data based on the operating status of LED streetlights at the edge and providing necessary data to the server side, efficient operation of the system becomes possible. Brief explanation of the drawing

[0028] FIG. 1 is a configuration diagram showing the operation process of the LED street light carbon emission information management system of the present invention. FIG. 2 is a diagram showing the configuration of the LED street light carbon emission information management system of the present invention. FIG. 3 is a diagram showing an example of a connection structure between an LED street light, an edge gateway, and a wireless communication network in the present invention. FIG. 4 is a diagram showing the detailed configuration of an edge ramp control module in the present invention. FIG. 5 is a diagram showing the server configuration in the present invention. FIG. 6 is a diagram showing an embodiment of the LED street light carbon emission information management system of the present invention. Specific details for implementing the invention

[0029] First, terms and words used in the detailed description and claims of the present invention should not be interpreted as being limited to their ordinary or dictionary meanings, but rather must be interpreted in a sense and concept consistent with the technical spirit of the present invention, based on the principle that "the inventor may appropriately define the concept of a term to best describe his invention."

[0030] In addition, the embodiments described in this specification and the configurations illustrated in the drawings are merely preferred embodiments of the present invention and do not represent all technical concepts of the present invention; therefore, it should be understood that various equivalents and modifications that can replace them may exist at the time of filing this application.

[0031] In addition, the same reference numbers or symbols described in each drawing attached to this specification represent parts or components that perform substantially the same function. For convenience of explanation and understanding, the same reference numbers or symbols are used to describe different embodiments. That is, even if components having the same reference number are all depicted in multiple drawings, the multiple drawings do not imply a single embodiment.

[0032] In this specification, singular expressions include plural expressions unless the context clearly indicates otherwise. In this application, terms such as 'comprising' or 'composing' are intended to specify the existence of the features, numbers, steps, actions, components, parts, or combinations thereof described in the specification, and should be understood as not precluding the existence or addition of one or more other features, numbers, steps, actions, components, parts, or combinations thereof.

[0033] Hereinafter, the carbon emission automatic calculation management system of the LED street light of the present invention will be described in detail with reference to the embodiments illustrated in the attached drawings, FIGS. 1 to 6.

[0034] FIG. 1 is a diagram showing the operation process of the carbon emission information management system of the LED street light of the present invention, and FIG. 2 shows the schematic configuration of the system of the present invention.

[0035] The carbon emission information management system for LED streetlights according to the present invention is,

[0036] The system comprises an Edge Lamp Controller Module (200) installed on LED streetlights connected to each node via a Lora communication network, an Edge Gateway (300) that collects LED streetlight information such as power, temperature, and illuminance from the Edge Lamp Controller Module (200), stores monitoring information of the LED streetlights from the collected LED streetlight information in a server (100) or cloud (400), and transmits LED control information from the server (100) to control the Edge Lamp Controller Module (200), and a server (100) for storing and managing LED streetlight monitoring information collected through the Edge Gateway (300) and monitoring electricity consumption and carbon emissions from the LED streetlight monitoring information.

[0037] The edge lamp control module (200) and edge gateway (300) of the above LED street light are configured with a 2.4GHz Lora wireless communication network, and each node is connected in a mesh structure so that there is no problem with data transmission even if a problem occurs with any one of the LED street lights.

[0038] Figure 3 shows an example of a connection structure between an LED street light, an edge gateway, and a wireless communication network.

[0039] The edge lamp control module (200) of the above LED street light collects data such as power, temperature, and illuminance, and can provide the collected data as LED street light information to the edge gateway (300) or the edge lamp control module (200) of the LED street light of another node.

[0040] As illustrated in FIG. 4, the edge lamp control module (200) may be configured to include a power supply unit (210) that rectifies input AC power and supplies it as LED operating power, an LED array unit (220) in which a plurality of LEDs are arranged to form a lamp, an LED driving unit (230) for driving the LED array unit (220) to light up, an LED control unit (240) that controls the LED driving unit (230) to control the lighting of the LED array unit (220), and a communication control module (250) for providing information collected from the LED street light to the LED street light or edge gateway (300) of an adjacent node via a wireless communication network and receiving control information provided from the LED street light or edge gateway (300) of an adjacent node.

[0041] The above LED driver (230) is configured to include a PFC unit composed of a converter that performs a DC 400V step-up process, and the PFC unit may be configured to include a Power Factor Correction (PFC) and a Boost Converter that control the Power Factor according to specifications when an AC voltage is input.

[0042] The above LED control unit (240) may include a current sensor for controlling the current flowing through the LED and the power consumption, and a power control unit.

[0043] The edge lamp control module (200) includes a power management unit (PMU IC) (260) for collecting information on power consumption, voltage, current, and power factor and providing the collected information through a communication control module (250), a power cutoff switch unit (270) for managing the supply / cutoff of operating power of an LED array unit (220) according to remote control information provided through the communication control module (250), and a dimming control unit (280) for controlling an LED driving unit (230) to perform automatic dimming according to remote control information provided through the communication control module (250).

[0044] And the edge lamp control module (200) may include a temperature sensor for providing temperature information through the communication control module (250).

[0045] And the edge lamp control module (200) may include an illuminance sensor to provide brightness information of the LED through the communication control module (250).

[0046] And the edge lamp control module (200) can be configured with a surge protection unit (290) for bypassing surge voltage to protect the device from surge voltage such as lightning.

[0047] And the communication control module (250) is a communication control means for remote control of automatic on / off and dimming of the LED array unit (220) and monitoring of the LED street light from the server (100), and can be configured as a LaRa communication module having a multiple communication connection structure.

[0048] And the edge lamp control module (200) may include a data control unit that classifies junk data from data collected through the power management unit and determines the data to be transmitted to the server (100) or cloud (400).

[0049] The above data control unit temporarily stores the collected data and classifies the junk data according to the LED street light status, and transmits the time series data (Time Series Data; data collected during a set time interval) on the flash memory to the server (100).

[0050] That is, the data control unit determines whether there is an abnormality in the street light from the collected data and provides the stored data to the server (100) at regular intervals depending on whether there is an abnormality. If it is determined to be normal, it transmits power, time, and street light status information to the server (100), excluding data regarding voltage, current, and temperature. If it is abnormal, it transmits all data to the server (100) to analyze the street light status.

[0051] The above data control unit includes learning information for determining whether there is a status abnormality of the LED street light based on normal data.

[0052] In this way, by classifying junk data through the data control unit and selectively transmitting the data to the edge gateway (300), the data transmission load is reduced, and by filtering out the junk data that accumulates in the server (100) at the edge, the operation of the server (100) becomes easier.

[0053] The edge gateway (300) collects data collected from the edge lamp control module (200) of the LED street light and can provide the collected data to a server (100) or store it in the cloud (400).

[0054] The edge gateway (300) can transmit data from 50 to a maximum of 100 LED streetlights and can provide information through the internet or wired / wireless communication networks such as LTE and 5G.

[0055] The edge gateway (300) is composed of a LoRa Anyconmesh stack structure that is coupled and linked with the edge ramp control module (100), performs communication through a LoRa communication network, analyzes information collected from the edge ramp control module (200), and transmits and stores it to a server (100) or cloud (400) via an IP stack according to a selected communication method.

[0056] Meanwhile, the above server (100) manages LED street light monitoring information collected through the edge gateway (300), generates monitoring information on electricity consumption and carbon emissions from the LED street light monitoring information, and manages carbon emission information of the LED street light.

[0057] Here, the server (100) refers to a computer system that provides information or services to a client through a network, and means a computer program or device. In particular, software that operates on a server is called server software, and the carbon emission information management algorithm of an LED street light according to one embodiment of the present invention can be considered as an example of server software.

[0058] Referring to FIG. 5, the server (100) includes a processor (110) and a storage unit (120).

[0059] And, the above processor (110) is,

[0060] LED street light monitoring information is collected from the edge gateway (300) and stored and managed in the storage unit (120). Fault diagnosis analysis is performed on the collected LED street light monitoring information to generate and manage fault diagnosis and maintenance information. Electricity usage information of LED street lights by group unit is managed from the LED street light installation information. Electricity usage prediction information by group unit is generated and managed from the LED street light electricity usage information by group unit. Carbon emission information of LED street lights by group unit is generated from the electricity usage information by referencing the LED street light installation information and emission factor reference information. Carbon emission prediction information of LED street lights by group unit is generated and managed. Greenhouse gas emission reduction amount is calculated according to an algorithm to which the UNFCCC CDM methodology is applied by referencing the LED street light carbon emission amount by group unit, carbon emission prediction information, and baseline reference information, and a carbon trading support service can be provided.

[0061] And the above processor (110) can provide fault diagnosis information to an administrator when a fault is diagnosed as a result of performing a fault diagnosis analysis, and can generate and manage maintenance information according to the processing information registered by the administrator.

[0062] And the above processor (110) can predict the occurrence of a failure in an LED street light based on LED street light monitoring information collected based on the history of the LED street light's failure diagnosis information, and if a failure is predicted, it can generate failure prediction information and provide it to the monitoring manager.

[0063] And the above processor (110) can generate a carbon emission report based on the calculated greenhouse gas emission reduction amount.

[0064] The above carbon emission report includes carbon emission information for LED streetlights by group, predicted carbon emission information for LED streetlights by group, and the calculated greenhouse gas emission reduction amount.

[0065] The above processor (110) can generate password information for a carbon emission report, transmit the carbon emission report and password information to a CDM certification company to request certification, and receive certification information from the CDM certification company to generate, store, and manage carbon trading rights information for the carbon emission report.

[0066] Here, the CDM certification entity may be composed of a certification system or a certification manager terminal means for a certification manager to verify and check a carbon emission report for which certification has been requested, and the certification system or certification manager terminal means may be equipped with a program that decrypts and verifies password information and enables the viewing and verification of the corresponding carbon emission report based on the password information.

[0067] In addition, the processor (110) may provide a means for an administrator to view monitoring information regarding the operation status of the LED street light, fault diagnosis information, location information of the LED street light, and energy usage (electricity usage, greenhouse gas emissions) and to request a report.

[0068] The above storage unit (120) includes manager information, monitoring target information, monitoring information of LED streetlights collected from the edge gateway (200), and carbon neutrality information.

[0069] The above administrator information is the administrator's connection information and may include contact information such as phone numbers and email addresses.

[0070] The above monitoring management target information is identification information (Edge node) of the edge lamp control module (200) and edge gateway (300) of the LED street light, and may include location information.

[0071] The monitoring information of the LED street light above is monitoring information of the LED street light collected through the edge gateway (300), and may include voltage, current, instantaneous power consumption, and temperature information.

[0072] In addition, the monitoring information of the LED street light includes status information of the LED street light, and the status information of the LED street light may include fault diagnosis information, fault prediction information, and maintenance information.

[0073] In addition, the above carbon neutrality information may include electricity usage by group, electricity usage prediction information by group, carbon emissions by group, and carbon emission prediction information by group, generated from the monitoring information of collected LED streetlights.

[0074] In addition, the above carbon neutrality information may include greenhouse gas emission reduction amounts and carbon emission report information.

[0075] The LED street light carbon emission information management system of the present invention, as described above,

[0076] Basically, it supports the operational energy efficiency of road lighting (Edge AI Dimming) and smart maintenance (AI fault diagnosis), and is characterized by the ability to ultimately generate foundational data and reports for obtaining Certified Emission Reduction (CER) certification for greenhouse gas emission reductions in external projects (CDM; Clean Development Mechanism) based on real-time collected data and international standards.

[0077] The system of the present invention is,

[0078] (a). Road lighting monitoring through the collection of operation data from LED streetlights

[0079] (b) Fault diagnosis, fault prediction, and maintenance

[0080] (c). Electricity consumption by group, forecast of electricity consumption by group

[0081] (d). Carbon emissions by group, carbon emissions forecast by group

[0082] (e). Calculation of greenhouse gas reductions and support for carbon trading,

[0083] It is defined as the main technical feature.

[0084] Data collected from the edge lamp control module (200) of the LED street light via the LaRa communication network is provided to the edge lamp control module (200) or edge gateway (300) of an adjacent LED street light, and the data transmitted to the edge lamp control module (200) is finally provided to the edge gateway (300). From the edge gateway (300), it is provided to the server (100) via a wired or wireless network.

[0085] Here, the data control unit of the edge lamp control module (200) stores the collected data at regular intervals, determines whether there is an abnormality in the LED street light from the collected data, and provides the data stored at regular intervals to the server (100) depending on whether there is an abnormality.

[0086] At this time, if the LED street light is determined to be normal, only power, time, and street light status information is transmitted to the server (100), excluding data regarding voltage, current, and temperature, and if it is abnormal, all data is transmitted to the server (100) to analyze the LED street light status.

[0087] In this way, the edge ramp control module (200) primarily filters out junk data and transmits it to the server (100).

[0088] The server (100) collects LED street light monitoring information through the edge gateway (300) as described above, and performs LED street light monitoring by generating status information of the LED street light from the collected LED street light monitoring information.

[0089] When a fault is diagnosed based on the fault diagnosis analysis performed by the above server (100), the server can provide fault diagnosis information to the administrator and generate and manage maintenance information based on the processing information registered by the administrator, and predict the occurrence of a fault in an LED street light based on the LED street light monitoring information collected based on the history of the fault diagnosis information of the LED street light, and when a fault is predicted, generate fault prediction information and provide it to the monitoring administrator.

[0090] In other words, it determines whether there is an abnormality in the LED streetlight through fault diagnosis analysis, generates status notification information when an abnormal condition occurs, and provides this information to the administrator.

[0091] In this way, by providing fault diagnosis and status notification information for LED streetlights, smart maintenance is enabled to allow for quick after-sales service.

[0092] In addition, the occurrence of an abnormal state of an LED street light can be predicted based on the LED street light monitoring information collected based on the information on the occurrence of an abnormal state of the LED street light.

[0093] As described above, if an abnormal condition of the LED street light is predicted, fault diagnosis prediction information can be generated to provide notification information to the monitoring manager.

[0094] That is, the server (100) has learned fault diagnosis correlation information regarding the correlation between power, temperature, and illuminance information collected from the LED streetlight and abnormal conditions. By using this fault diagnosis correlation information, information on whether an abnormal condition of the LED streetlight has occurred and accident prediction information is generated, thereby enabling fault diagnosis and prediction.

[0095] In other words, it provides fault diagnosis and status notification information to the administrator as maintenance information, ensures that all information regarding maintenance request confirmation and processing is monitored, and stores and manages monitoring information regarding maintenance information.

[0096] Additionally, after the maintenance is processed, the server (100) stores and manages the maintenance history data in the storage unit (120), and based on the maintenance history data, calculates maintenance information for parts or LED streetlights (e.g., minimum remaining days required for total replacement, etc.) in a specific pattern and can provide maintenance guide information.

[0097] In addition, the server (100) can generate electricity consumption per group from the collected LED street light monitoring information and perform monitoring of road lighting electricity usage per group.

[0098] Based on power sensor data, daily, weekly, quarterly, semi-annual, and yearly electricity usage can be generated, and electricity usage can also be monitored by individual LED streetlights, distribution panels, specific zones, and regions.

[0099] In addition, electricity consumption prediction information by group can be generated and managed from electricity consumption information of LED streetlights by group, and carbon emission information of LED streetlights by group can be generated from electricity consumption information by referring to LED streetlight installation information and emission factor standard information.

[0100] The above emission factor reference information may include country-specific EFs for electricity usage, IPCC reference information, private database information (ecoinvent), system-specific EFs, etc.

[0101] In addition, the above server (100) can generate and manage LED street light carbon emission prediction information by group unit.

[0102] By referring to the carbon emissions of LED streetlights by group unit, carbon emission prediction information, and baseline reference information, carbon emission reduction amounts can be calculated according to an algorithm designed in accordance with the UNFCCC CDM method, and carbon trading support services can be provided.

[0103] The above baseline reference information may include the rated capacity, installation quantity, electricity rate plan, and annual lighting time based on the installation information of the LED streetlights.

[0104] The above server (100) includes an automatic carbon emission reduction tool.

[0105] The calculation of carbon emission reduction (ER_y; greenhouse gas emission reduction) is,

[0106] It can be automatically calculated from baseline emissions (BEy), business emissions (PEy), and leakage (LEy), and can be expressed as shown in the following mathematical formula 1.

[0107]

[0108] The above project emissions (PEy) are calculated as the amount of greenhouse gases (carbon emissions) generated from electricity usage after the project; if the installed lighting equipment is relocated from an external source, the carbon emission reduction amount is calculated by including the leakage amount (LEy) to account for leakage, and the leakage amount can be expressed as power consumption × number of lights.

[0109] And the above server (100) can generate a carbon emission report based on the carbon emission reduction amount calculated as above, and can generate it on a fixed period basis or at the request of an administrator.

[0110] The above carbon emission report includes carbon emission information for LED streetlights by group, predicted carbon emission information for LED streetlights by group, and the calculated carbon gas emission reduction amount (greenhouse gas emission reduction amount).

[0111] Such carbon emission reports are generated according to the CDM report format to be provided to CDM-certified companies.

[0112] The server (100) can encrypt password information for the carbon emission report generated as described above, and request authentication of the encrypted password information and the carbon emission report to a CDM certification company.

[0113] Here, the CDM certification entity may be configured as a certification system or a certification manager terminal means for the certification manager to verify and check the carbon emission report for which certification has been requested.

[0114] The above server (100) can enhance security by generating and providing password information for the carbon emission report when a request for authentication for the carbon emission report is made, and can request authentication by transmitting the carbon emission report and password information to a CDM certification company, and receive authentication information from the CDM certification company to generate, store, and manage carbon trading rights information for the carbon emission report.

[0115] And the above server (100) can provide monitoring information regarding the operating status of the LED street light, location information of the LED street light diagnosed as abnormal, and energy usage (electricity usage, greenhouse gas emissions) as a digital map or 3D graphic information, and can provide a means of inquiry to provide information and reports requested by the administrator to the connected authenticated administrator.

[0116] The above inquiry means includes a data inquiry unit and a carbon neutrality inquiry unit, wherein the data inquiry unit includes a means for inquiring into monitoring information such as power consumption, voltage, current, power, temperature, and illuminance collected from LED streetlights, and the carbon neutrality inquiry unit may include electricity consumption by group unit, electricity consumption prediction information by group unit, carbon emissions by group unit, and carbon emission prediction information by group unit generated from the collected monitoring information of LED streetlights.

[0117] In addition, the carbon neutrality inquiry unit may include means for inquiring about greenhouse gas emission reduction amounts and carbon emission report information.

[0118] In addition, the data inquiry unit includes status information of the LED street light, and the status information of the LED street light may include fault diagnosis information, fault prediction information, and maintenance information.

[0119] As described above, the server (100) performs automatic / off dimming control of LED streetlights and manages monitoring information of LED streetlights and carbon neutrality information, and provides means for viewing and controlling these information, requesting reports, and requesting CDM certification by an authenticated manager.

[0120] The administrator terminal means (500) may be composed of a PC or a smart terminal means, and an application program is installed to connect to the server (100) for automatic / off dimming control of LED streetlights, management of monitoring information of LED streetlights and carbon neutrality information, viewing and control of these information, and requesting reports.

[0121] The above application includes server connection and monitoring information inquiry, report request, authentication request, and remote dimming control programs, and

[0122] The above information inquiry program may include means for inquiry into LED street light information regarding the installation location and regional information of the LED street light, inquiry into LED street light monitoring information such as the operating status, power consumption, voltage, current, power, temperature, and illuminance of the LED street light, and carbon neutrality inquiry including information on electricity consumption, greenhouse gas emissions, and carbon emissions.

[0123] The above report request program may include means for requesting reports on LED street light monitoring information, electricity consumption, greenhouse gas emissions, carbon emissions, and greenhouse gas emission reduction amounts, as well as means for setting a baseline, requesting a carbon emission report through comparison with the baseline, and requesting certification.

[0124] Meanwhile, the server (100) can perform remote control of the LED streetlights, including turning them on / off and dimming.

[0125] With respect to the identification information (edge ​​node) of the edge lamp control module (200) and edge gateway (300) installed in the LED street light, the server (100) can control the street light on / off or dimming.

[0126] The server (100) can collectively control the on / off of streetlights according to the set time and region.

[0127] In addition, the brightness can be adjusted over time through dimming control. For example, an LED street light can be turned on, and dimming control can be performed by setting the dimming level to 50%, 70%, etc., starting from a set time (e.g., after 5 hours).

[0128] The time, region, and brightness for dimming control can be set by an authenticated manager.

[0129] According to the present invention, a carbon trading support service platform can be provided by calculating the group-unit electricity consumption and prediction information of road lighting, carbon emissions and their prediction information, greenhouse gas reduction amount, automatic generation of a CDM report, and certification of a CDM report from monitoring information of LED streetlights.

[0130] In addition, the present invention utilizes edge AI on an edge device rather than on the server side to minimize resources such as communication and computing, and enables efficient system operation by predicting electricity usage at regular intervals through data and extending to predicting carbon emissions.

[0131] In addition, the present invention can provide a smart control system for LED streetlights capable of predicting electricity usage within an edge device by utilizing time-series data such as power, voltage, current, temperature of the edge lamp control module, dimming state, LED state, and PFC state that can be collected from road lighting.

[0132] Meanwhile, as another embodiment of the present invention, a hybrid solar LED street light can be configured by configuring a solar panel, module, battery, and BMS, so that power supply by solar power generation and power supply by a standard grid are achieved.

[0133] According to this, information on renewable energy generation and consumption through solar power generation can be included in carbon emission information to enable management and retrieval.

[0134] Although preferred embodiments of the present invention have been illustrated and described, the present invention is not limited to the specific embodiments described above. Various modifications are possible by those skilled in the art without departing from the essence of the invention as claimed in the claims, and such modifications should not be understood individually from the technical spirit or perspective of the present invention. Explanation of the symbols

[0135] 100: Server 200: Edge Ramp Control Module 300: Edge Gateway 400: Cloud 500: Administrator terminal means 600: CDM certifier

Claims

Claim 1 It includes an Edge Lamp Controller Module installed on LED streetlights connected to each node via a LoRa communication network; an Edge Gateway that collects LED streetlight information from the Edge Lamp Controller Module, stores monitoring information of the LED streetlights from the collected information on a server or cloud, and transmits LED control information from the server to control the Edge Lamp Controller Module; and a server for storing and managing LED streetlight monitoring information collected through the Edge Gateway, monitoring electricity consumption and carbon emissions from the LED streetlight monitoring information, generating carbon emission reports, and managing certification of carbon emission reports through a CDM certification company; The above server collects LED street light monitoring information from the edge gateway and stores and manages it in a storage unit; performs fault diagnosis analysis on the collected LED street light monitoring information to generate and manage fault diagnosis and maintenance information; manages electricity usage information for LED street lights by group from the LED street light installation information and generates and manages electricity usage prediction information by group from the electricity usage information; generates carbon emission information for LED street lights by group from the electricity usage information by referencing the LED street light installation information and emission factor reference information, and generates and manages carbon emission prediction information for LED street lights by group; calculates greenhouse gas emission reduction amounts by referencing the group-unit LED street light carbon emissions, carbon emission prediction information, and baseline reference information; generates a carbon emission report based on the calculated greenhouse gas emission reduction amounts; transmits the generated carbon emission report to a CDM certification company to request certification; receives certification information from the CDM certification company and generates, stores, and manages carbon trading right information for the carbon emission report; and includes a processor, administrator information, and monitoring management targets. It is configured to include a storage unit that stores information, monitoring information of LED streetlights collected from the edge gateway, and carbon neutrality information;The above-mentioned administrator information is the administrator's connection information and includes contact information; the above-mentioned monitoring management target information is the identification information (Edge node) of the edge lamp control module and edge gateway of the LED street light and includes location information; the above-mentioned monitoring information of the LED street light is monitoring information of the LED street light collected through the edge gateway and includes voltage, current, instantaneous power consumption, and temperature information; the above-mentioned monitoring information of the LED street light includes status information of the LED street light, the status information of the LED street light includes fault diagnosis information, fault prediction information, and maintenance information; and the above-mentioned carbon neutrality information is configured to include electricity usage by group, electricity usage prediction information by group, carbon emissions by group, carbon emission prediction information by group, greenhouse gas emission reduction amount, and carbon emission report information generated from the collected monitoring information of the LED street light; wherein the above-mentioned processor can provide monitoring information regarding the operating status of the LED street light, location information of the LED street light diagnosed as abnormal, and energy usage (electricity usage, greenhouse gas emissions) as a digital map or 3D graphic information. An LED street light carbon emission information management system characterized by providing a means for querying information and providing reports requested by an administrator to a connected authenticated administrator, wherein the means for querying includes a data query unit and a carbon neutrality query unit, wherein the data query unit includes a means for querying monitoring information collected from LED street lights, and the carbon neutrality query unit includes a means for querying information on electricity usage by group, electricity usage prediction information by group, carbon emissions by group, carbon emission prediction information by group, greenhouse gas emission reduction amount, and carbon emission report information generated from the collected monitoring information of LED street lights. Claim 2 delete Claim 3 An LED street light carbon emission information management system according to claim 1, characterized in that the carbon emission report includes carbon emission information of LED street lights by group, predicted carbon emission information of LED street lights by group, and the calculated greenhouse gas emission reduction amount. Claim 4 In claim 1, the processor of the server generates password information for a carbon emission report, and when requesting certification from a CDM certification company, transmits the carbon emission report and password information to the CDM certification company to request certification, receives certification information from the CDM certification company, generates carbon trading right information for the carbon emission report, and stores and manages it; the CDM certification company may be composed of a certification system or a certification manager terminal means for a certification manager to verify and check the carbon emission report for which certification has been requested, and the certification system or certification manager terminal means decrypts and verifies the password information, and a program is installed that enables the viewing and verification of the corresponding carbon emission report according to the password information, thereby forming an LED street light carbon emission information management system. Claim 5 delete Claim 6 An LED street light carbon emission information management system according to claim 1, wherein the data inquiry unit includes status information of an LED street light, and the status information of the LED street light includes fault diagnosis information, fault prediction information, and maintenance information.

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