Night protection wall manufacturing method and manufacturing and management system using carbon neutralization intelligent green city environmental protection module based on cyclic resources

Abstract

The present invention provides a manufacturing method and a manufacturing and managing system for a night protection wall using a carbon neutralization intelligent green city environmental protection module based on a recycling resource, and more specifically, since a pillow block, a retaining wall of a road cut and the like have no safety sign color, a vehicle can simultaneously prevent a collision phenomenon on the wall, and the safety of the vehicle is improved. According to the manufacturing method of the environment-friendly and green flag, light storage paint is sprayed on a night protection wall, light is absorbed and accumulated in the daytime, then light is generated at night, and therefore drivers can be conveyed.

Description

Technical Field

[0001] This invention relates to a method for manufacturing nighttime safety barriers using a carbon-neutral smart green eco-friendly neighborhood based on circular resources, as well as its manufacturing and management system. More specifically, since retaining walls at axle platforms and road cuts lack safety marking colors, vehicles can simultaneously prevent collisions by spraying photoluminescent paint onto the nighttime safety barriers. This paint absorbs and accumulates light during the day and then generates light at night, thereby conveying environmental and green eco-friendly information to drivers. Background Technology

[0002] Demolishing buildings can yield sand, gravel, and stone powder as recyclable materials, and improving the recycling rate of these materials is key to environmental protection technologies.

[0003] Therefore, the reason for increasing the reuse rate of materials after the demolition of buildings is that, currently, due to the depletion of building materials such as sand and gravel, the production cost of concrete products, especially concrete modules, is increasing day by day. Therefore, it is necessary to solve this problem. In particular, the production process of various building materials generates a lot of carbon and is also at a disadvantage in terms of carbon emission rights. It is necessary to solve these problems.

[0004] In this context, various research and developments are underway in the technical field to which this patent pertains, in order to recycle materials generated during building demolition, and various patents have been proposed.

[0005] On the other hand, existing axle platforms and retaining walls at road intersections lack safety marking colors, which can cause vehicles to collide with the walls when moving.

[0006] As a related conventional technology, Korean Patent Application No. 10-2022-0049435, "Concrete surtained wall block operation management system for disaster prevention," utilizes a module combining sensors-powered solar modules and batteries to monitor dangerous conditions in advance and inform vehicle drivers of the dangerous conditions monitored by the sensors, thereby preventing problems before they occur. Based on the driver's location, it uses the retaining wall as the basis for road information and provides sensor-based information services, collecting data on a large scale.

[0007] Korean Patent Application No. 10-2012-0004080, entitled "Light Device for Insulated at Downtown Retaining Wall," relates to a lighting device installed on a retaining wall in a city center. The device is installed between reinforced earth blocks stacked at different levels, diffuses light forward, improves lighting efficiency, provides a beautiful night view, and reduces power consumption to prevent traffic accidents.

[0008] Furthermore, Korean Patent Application No. 10-2011-0088257, entitled "Step and Stand Type Retining Wall Block and the Construction Method for the Same," describes a rear panel integrally formed from a front panel and the front panel. The rear sides of the rear panel are connected to the front panel at points where, depending on the height of the front panel, they form an integral connection with the lower front part of the front panel. The rear panels also form an integral connection with the lower part of the front panel. The rear panel is connected to the front panel on the wall bricks, and has the same width and height as the rear panel, with an upper connecting groove having the same depth and width as the connecting groove formed on the front panel. The lower panel consists of a fixing front panel and a lower panel, which are connected to form a continuous structure. Auxiliary panels are installed between adjacent vertical retaining wall module assemblies, forming a single, integrated retaining wall. This not only shortens the construction period but also allows for grid-like installation of the fixing anchors and other mesh inserts. Even if construction is only carried out on the lower panel, the same shortened construction period can be achieved. Therefore, both construction and non-construction periods can be accommodated. The technology also contributes to preventing slope collapse and stability through the interlocking of the upper and lower panels, preventing safety accidents caused by the transmission of debris from the retaining wall blocks.

[0009] Additionally, the Republic of Korea patent application number 10-2005-0102736, "BREAST WALL OF...", is related to the designation of a road retaining wall structure. A "ROAD" is a retaining wall structure installed between a road and a slope. A long-length storage trough for inserting a high-quality storage sponge is formed on the upper part of the retaining wall. Multiple spaced planting box fixing slots are formed on one side of the storage trough. The planting box can be fixed to the planting trough. The planting material is fixed to the planting trough, and the planting material is fixed to the planting trough. Rainwater inflow holes connected to rainwater storage tanks are formed on the upper part of the inner wall of the planting box and the inner wall of the planting box. Rainwater inflow sponges are inserted. Rainwater drainage holes penetrating the outside of the retaining wall are formed on the lower part of the inner wall of the planting box and the inner wall of the planting box, thereby inserting rainwater drainage sponges. Not only does it maintain the function of the retaining wall while creating an aesthetic appeal through the harmony between the retaining wall structure and nature, but it also makes drivers feel comfortable and greatly improves the road environment.

[0010] However, previous technologies not only had limitations in increasing vehicle safety through the installation of auxiliary materials, or the increase in safety was not satisfactory, but also had limitations in nighttime vehicle safety, as well as limitations in achieving safety through additions to the structure itself or fundamental design changes.

[0011] Therefore, in the relevant technical field, there is a need to develop technologies that, based on the recycled resources from building demolition, can provide drivers with attention warnings and signage, especially at night, without structural alterations, to improve the problem of collisions between vehicles or pedestrians caused by the lack of light, such as at retaining walls.

[0012] Existing technical documents

[0013] Patent documents

[0014] (Patent Document 1) Republic of Korea Patent Application No. 10-2022-0049435, "Concrete surtain wall block operation management system for disaster prevention"

[0015] (Patent Document 2) Republic of Korea Patent Application No. 10-2012-0004080, “Light Device for Insulated At Downtown Retaining Wall”

[0016] (Patent Document 3) Republic of Korea Patent Application No. 10-2011-0088257, "Step and Stage Type-Equipped Wall Block and Construction Method for the Same"

[0017] (Patent Document 4) Republic of Korea Patent Application No. 10-2005-0102736, "Breasel Wall of Road" Summary of the Invention

[0018] The problem that the invention aims to solve

[0019] This invention aims to solve the aforementioned problem. To prevent vehicles from colliding simultaneously on retaining walls at axle platforms and road cuts due to the lack of safety marking colors, a light-emitting paint is sprayed onto the nighttime protective wall. This paint absorbs and accumulates light during the day and emits light at night, serving as a warning and signage for vehicle drivers. The invention also provides a method for manufacturing a nighttime protective wall using carbon-neutral intelligent green patterned bricks based on recycled resources, along with its management system.

[0020] Furthermore, this invention aims to provide a method for manufacturing a nighttime protective wall, as well as its manufacturing and management system, which adopts a carbon-neutral smart green Citibank eco-block based on circular resources. This system can not only recycle 70% of sand, gravel, and stone powder to achieve carbon neutrality through resource regeneration, but also sell carbon emission rights.

[0021] However, the purpose of this invention is not limited to the stated purpose, and other purposes not mentioned may be clearly understood by the parties from the following description.

[0022] means for solving problems

[0023] To achieve the aforementioned objective, according to an embodiment of the present invention, a method for manufacturing a nighttime protective wall using a carbon-neutral smart green city environmental protection block based on circular resources includes: injecting a pre-formed environmental protection block composition into a template for manufacturing the nighttime protective wall; vibrating the template after it is mounted on a vibrator to uniformly distribute the environmental protection block composition within the template; a second stage in which the vibrated template is hardened in a steam heating chamber, demolded, and cured at room temperature; and a third stage in which the manufactured photoluminescent paint is applied to the environmental protection module to form the nighttime protective wall 10.

[0024] At this point, prior to the first stage, after the demolition of the buildings, recyclable materials will be prepared to be provided through a cone – ① environmentally friendly materials equivalent to recyclable materials (including sand, gravel, and stone powder), ② additional materials equivalent to steel wire (river sand), new gravel, and environmentally friendly byproducts, and ③ binding materials mixed from various storage tanks by a mixer; a nighttime protective wall manufacturing method can be provided that utilizes a carbon-neutral smart green flower city environmentally friendly block based on circular resources, characterized by containing more.

[0025] To achieve the aforementioned objective, according to an embodiment of the present invention, a nighttime protective wall manufacturing management system for a carbon-neutral smart green urban environmental protection block based on circular resources is utilized. This system manufactures a commissioned nighttime protective wall 10 from a client terminal 400 via a nighttime protective wall manufacturing management server 300. Recyclable materials (including sand, gravel, and stone) after building dismantling are recyclable and provided by the client 400 as environmental byproducts. The system includes a nighttime protective wall manufacturing device 100 and a nighttime protective wall manufacturing management server 300, which controls the nighttime protective wall manufacturing device 100 to apply photoluminescent paint to a pre-defined spraying area on the environmentally friendly block of the nighttime protective wall 10 manufacturing object, thus forming the nighttime protective wall 10. The system is characterized by including these features.

[0026] At this time, the night protection wall manufacturing management server 300 transmits the sensing information of each night protection wall 10 through the MPU formed on the protection wall device module 10a of each night protection wall 10 according to the control of the transceiver end via the network 200. It can utilize a neutral, green and environmentally friendly night protection wall manufacturing system characterized by the storage of the serial number and sensing information of each night protection wall 10 in the database.

[0027] Furthermore, the protective wall device module 10a is square or round in shape. The solar-powered LED and sensor unit are installed in the painting area. It generates electricity from the solar array of the solar-powered LED and uses battery charging power to provide a nighttime protective wall manufacturing system based on recycled resources and carbon-neutral intelligent green chemical blocks, characterized by the operation of LED elements, sensor unit, transceiver terminal, and MPU using solar-powered LEDs.

[0028] Invention Effects

[0029] According to an embodiment of the present invention, a method for manufacturing nighttime protective walls using a carbon-neutral smart green urban environmental protection block based on circular resources is introduced, as well as its manufacturing and management system. The retaining walls at the axle platforms and road cuts do not have safety marking colors, which can prevent vehicles from colliding with each other on the walls at the same time. The nighttime protective walls are sprayed with photoluminescent paint, which absorbs and accumulates light during the day and generates light at night, thereby conveying the effect of vehicle attention and warning.

[0030] Furthermore, according to other embodiments of the present invention, a method for manufacturing nighttime protective walls using a carbon-neutral smart green Citibank eco-block based on circular resources, and its manufacturing and management system, recycles 70% of sand, gravel, and stone powder as recyclable materials after the buildings are dismantled. This not only achieves carbon neutrality through resource regeneration but also enables the sale of carbon emission rights. Attached Figure Description

[0031] Figure 1 This is a flowchart illustrating a method for creating a nighttime protective wall using a carbon-neutral smart green flower city eco-friendly block based on circular resources, according to an embodiment of the present invention.

[0032] Figure 2 This is a diagram illustrating a nighttime protective wall manufacturing and management system 1 for a carbon-neutral smart green urban environmental protection block based on a circular resource, according to an embodiment of the present invention.

[0033] Figure 3 It is based on Figure 2 In an embodiment of the present invention, in a nighttime protective wall manufacturing and management system 1 utilizing a carbon-neutral smart green flower city environmental protection block based on circular resources, each nighttime protective wall 10 can provide a diagram of other configuration examples of protective wall device module 10a.

[0034] Explanation of reference numerals in the attached figures

[0035] 1: Nighttime protective barrier manufacturing and management system for Citibank Eco-Blocks, utilizing a carbon-neutral smart green neighborhood based on circular resources.

[0036] 10: Nighttime protective barrier;

[0037] 10a: Protective wall equipment module;

[0038] 100: Nighttime protective wall manufacturing device;

[0039] 200: Network;

[0040] 300: Nighttime firewall manufacturing management server;

[0041] 300a: Big Data Server;

[0042] 400: Client Terminal. Detailed Implementation

[0043] The following detailed description of preferred embodiments of the present invention will be given with reference to the accompanying drawings. In describing the present invention, detailed descriptions of specific functions or components will be omitted if it is believed that such descriptions might unnecessarily obscure the essence of the invention.

[0044] In this description, if a component “transmits” data or signals to another component, then that component can directly transmit the data or signals to the other component, or at least transmit the data or signals to the other component through the other component.

[0045] Figure 1 This is a flowchart illustrating a method for creating a nighttime protective wall using a carbon-neutral smart green flower city eco-friendly block based on circular resources, according to an embodiment of the present invention. Figure 2 This is a diagram illustrating a nighttime protective wall manufacturing and management system 1 for a carbon-neutral smart green urban environmental protection block based on a circular resource, according to an embodiment of the present invention.

[0046] First, refer to Figure 2 The nighttime protective wall manufacturing and management system 1 of the carbon-neutral smart green flower city environmental protection block based on circular resources can include multiple nighttime protective wall manufacturing devices 100, network 200, nighttime protective wall manufacturing management server 300, big data server 300a, and multiple client terminals 400, forming 10 carbon-neutral green flower city smart blocks based on circular resources generated by the nighttime protective wall manufacturing devices 100.

[0047] With this configuration, the night protection wall manufacturing device 100 can manufacture the commissioned night protection wall 10 from the client terminal 400 through the night protection wall manufacturing management server 300. However, it can manufacture environmentally friendly materials (including sand, gravel, stone powder) according to the client terminal 400, and manufacture the night protection wall 10 according to the basic materials (including sand, cement, etc.) provided by the client terminal 400, based on the mixture of river sand, new gravel and environmentally friendly by-products.

[0048] The reference particle size used in this invention is preferably 2 to 25 mm. When the particle size is less than 2 mm, the strength performance is insufficient for use in modules, and when it exceeds 25 mm, the workability is poor.

[0049] Similarly, the nighttime protective wall manufacturing device 100 achieves carbon neutrality through resource recycling, utilizing industrial waste and infrastructure, which can reduce carbon emissions, lighten weight, save energy, reduce production costs, and save carbon border taxes, thus addressing the problem of rising production costs of building materials and public facilities using existing modules due to the depletion of sand and gravel.

[0050] Therefore, the nighttime protective wall manufacturing device 100 can be based on Figure 1The manufacturing process shown manufactures the nighttime protective wall 10. Specifically, the nighttime protective wall manufacturing device 100 is in the first stage (S11), i.e., after the demolition of the building, ① environmentally friendly materials equivalent to recyclable materials (including sand, gravel, and stone powder), ② base materials equivalent to steel wire (steel grit), new gravel, and environmentally friendly byproducts, and ③ binding materials equivalent to cement, etc., are mixed in various storage tanks using a mixer and supplied via a zipper. In the materials prepared for supply in the first stage, ① based on 100 parts by weight of environmentally friendly materials, ② 15 to 25 parts by weight of additional materials are mixed with the first mixer. After mixing is completed within a preset time, based on 100 parts by weight of the mixed material, ③ 23 to 25 parts by weight of the binding material are added to form the second stage (S12). This includes, in the second stage, in addition to the binding material, other mixtures can be mixed. Examples of binding materials include cement (slag cement), polymers, sludge solidification powder, and geopolymers. The added mixtures can be thermoplastic polyurethane (TPP). Thermoplastic polyurethane (TPU), carbon fiber, flame retardants, etc., and the weight ratio of thermoplastic polyurethane (TPU) to environmentally friendly materials are 1.2, 0.3, 0.3, 0.3, 0.3, 0.3, 0.3, 0.3, 0.3, 0.3, 0.3, 0.3, based on 100 parts by weight, can be mixed in 7 to 12 parts by weight.

[0051] The cement may include, based on 45 to 52 parts by weight of slag cement or Portland cement, 12 to 15 parts by weight of fly ash, 11 to 13 parts by weight of sludge solidification powder, 2 to 5 parts by weight of blast furnace slag powder, 1 to 3 parts by weight of anhydrous gypsum, 2 to 4 parts by weight of dihydrate gypsum, 0.2 to 0.5 parts by weight of inorganic latent heat material, and 0.3 to 0.6 parts by weight of organic latent heat material.

[0052] Thermoplastic polyurethane (TPU) is a non-PVC series thermoplastic resin. Because it does not pose a risk of generating harmful compounds, it is harmless to the human body and does not emit atmospheric or soil pollutants when incinerated, making it environmentally friendly. As a rubbery elastomer with polyurethane groups (-NHCOO-), it possesses excellent mechanical strength and abrasion resistance, and exhibits superior properties in insulation, flexural strength, colorability, and feel. Therefore, thermoplastic resins made from it are suitable for clothing or bedding compositions.

[0053] As an embodiment of the present invention, TPU can be obtained by synthesizing 4,4'-dimethyl phthalate, polybutadiene glycol, and 1,4-butadiene glycol. For 100 parts by weight of 4,4'-dimethyl phthalate, 100 to 150 parts by weight of polybutadiene glycol and 120 parts by weight of 1,4-butadiene glycol can be synthesized.

[0054] The weight ratio of 4,4'-dimethylphenyl diisocyanate, polybutadiene glycol, and 1,4-butanediol can be appropriately changed according to the desired physical properties and the intended use of the polyurethane film. For example, increasing the weight ratio of 4,4'-dimethylphenyl diisocyanate increases the proportion of hard segments within the polyurethane, resulting in improved overall hardness. Conversely, decreasing the weight ratio of 4,4'-dimethylphenyl diisocyanate increases the proportion of soft segments within the polyurethane, leading to increased elongation and ductility.

[0055] On the other hand, carbon fibers and flame retardants can be included in at least one of the granules and phases formed by adding carbon fibers and flame retardants to recycled polypropylene resin. More specifically, carbon fibers are added to recycled polypropylene resin from waste synthetic resin for mixing to obtain carbon fiber reinforced plastic (CFRP) polypropylene resin. Carbon fiber reinforced polypropylene resin has advantages such as being stronger than iron, lighter than aluminum, rust-free, and having good processability.

[0056] In this process, a mixture of 45 to 54 parts by weight of polypropylene and 46 to 55 parts by weight of carbon fiber is added to 100 parts by weight of a mixture. A flame retardant is mixed in 5 to 7 parts by weight of the mixture, and a sunscreen is added in 1 to 2 parts by weight of the mixture. This process improves the strength of the resulting environmentally friendly module, i.e., its breaking strength. By adding flame retardant to the flammable polypropylene, the module becomes flame retardant in the face of potential fires during and after the manufacturing process. It also possesses high competitiveness, flame retardancy, and breaking strength.

[0057] In this invention, the flame retardant used is a mixture of antimony molybdate, aluminum hydroxide, molybdenum oxide, and magnesium hydroxide, or any two or more of these.

[0058] After the second stage (S12), the formed environmentally friendly module composition is injected into a template for manufacturing the nighttime protective wall. The template is then installed on a vibrator and vibrated to uniformly distribute the environmentally friendly module composition within the template (S13). After the template has been vibrated, it is hardened in a steam heating chamber, demolded, and cured at room temperature (S14). Finally, the photoluminescent paint manufactured in the first stage (S11a) is applied to the environmentally friendly module to form the nighttime protective wall 10 (S15).

[0059] In addition, unlike stage (S11) or stage (S14), the first stage (S11a) of manufacturing the phosphorescent paint is carried out before the execution stage (S15).

[0060] When preparing phosphorescent paint, a phosphorescent paint composition can be prepared by mixing 15 to 23 parts by weight of phosphorescent pigment and 12 parts by weight of epoxy resin mixture, based on 45 to 47 parts by weight of epoxy resin mixture.

[0061] In addition, it may include a hardening accelerator and a reinforcing agent, wherein the hardening accelerator comprises 1 to 1.5 parts by weight, possibly 2-ethyl-4-methylmidazol.

[0062] The reinforcing agent can be prepared by mixing a nanocellulose composite and a conductive adhesive in a weight ratio of 34 to 37:21 to 27. The nanocellulose composite can consist not only of nanocellulose but also of excipients including charcoal particles and phase-separated particles, polymers, and polypropylene resin. More specifically, based on 100 parts by weight of nanocellulose, it comprises 5 to 7 parts by weight of charcoal particles and phase-separated particles, 7 to 9 parts by weight of polymers, and 12 to 13 parts by weight of polypropylene resin. Therefore, when forming a coating with a conductive adhesive, it can improve heat diffusion and heat transfer, the paint strength and adhesion of the nanocellulose-formed coating, and simultaneously maintain a uniform temperature during curing through the charcoal particles and phase-separated particles, providing a robust coating structure.

[0063] Conductive adhesives are adhesives incorporating graphene fibers, and can be conductive adhesives with excellent adhesion and thermal conductivity.

[0064] The photoluminescent paint manufactured in stage 1-1 (S11a) is applied to the environmentally friendly module to form the fifth stage (S15) of the nighttime protective wall 10. In this process, the photoluminescent paint film manufactured in a predetermined area on the surface of the environmentally friendly building block is sprayed as the undercoat, and then an overlaying coat is sprayed. The sprayed coating is then irradiated with ultraviolet light to release visible light and generate a luminous image. The intensity of the luminous image is observed to see if there are gaps or changes, and to detect whether the overlaying coat completely covers the undercoat or whether the overlaying coat is damaged.

[0065] This photoluminescent paint is a type of paint that absorbs light during the day and emits light at night. It can improve the problem of collisions between vehicles or pedestrians caused by the lack of light at night, such as on axle platforms and retaining walls. When spraying photoluminescent paint on environmentally friendly building blocks, horizontal lines can be sprayed for a long time, forming on at least one surface in the spraying area corresponding to the front, back and sides of the environmentally friendly building blocks.

[0066] in addition, Figure 3 It is based on Figure 2In an embodiment of the present invention, in the nighttime protective wall manufacturing and management system 1 of a carbon-neutral smart green flower city environmental protection block based on circular resources, each nighttime protective wall 10 can provide a diagram of other configuration examples of protective wall device module 10a.

[0067] As another embodiment of the present invention, by confirming the preset viscosity in the environmentally friendly building block curing in the fourth stage (S14), holes of a preset depth can be formed in the night protective wall 10 cured at the preset viscosity in the preset area (spraying area, or area at a preset distance from the spraying area), forming a solar power generation type LED and sensor unit including a solar LED, and a protective wall 10 module (a) including an MPU.

[0068] With this configuration, the MPU of the protective wall device module 10a can compensate for the shortcomings of photoluminescent paint by controlling the power supply temperature (ON) of the solar-powered LED in the illuminance range preset by the illuminance sensor formed by the sensor, i.e., the illuminance range in which it is difficult to achieve photoluminescence (such as evening, cloudy days, etc.).

[0069] Furthermore, the MPU of the protective wall device module 10a accesses the nighttime protective wall manufacturing management server 300 via the network 200 through its own transceiver. Based on the location information of the serial number of the nighttime protective wall 10 formed by each protective wall device module 10a and the illuminance information provided by the weather information provided by the big data server 300a, it obtains control over solar power generation from the nighttime protective wall manufacturing 300 based on big data, thereby compensating for the shortcomings of LEDs. To this end, the big data server 300a can analyze the power supply temperature (ON) status of the solar-powered LEDs based on location-based weather information provided by multiple vehicle terminals, analyze the location information of the serial number of each nighttime protective wall 10, and store it in the DSC DB.

[0070] The LED element can be yellow (Y), but is not limited to this. It can be a multi-color LED with R, G, and B elements bundled together. Each multi-color LED can have its color and brightness adjusted by the color combination of its internal R, G, and B elements. Furthermore, in addition to color combinations, color and brightness can also be achieved using PWM (Pulse Width Modulation).

[0071] Network 200 is a high-speed backbone network of a large-scale communication network that can provide high-capacity, long-distance voice and data services. It can be a next-generation wired and wireless network providing Internet or high-speed multimedia services. If network 200 is a mobile communication network, it can be a synchronous mobile communication network or an asynchronous mobile communication network. An example of an asynchronous mobile communication network is a WCDMA (Wideband Code Division Multiple Access) network. In this case, although not shown in the diagram, network 200 can include a Radio Network Controller (RNC). On the other hand, while using WCDMA as an example, it could be a 3G LTE network, a 5G network (beyond 4G), or other IP-based networks. Network 200 serves to transmit signals and data between the nighttime firewall manufacturing equipment 100, the nighttime firewall manufacturing management server 300, the big data server 300a, the delegated terminal 400, the firewall device module 10a of the nighttime firewall 10, and other systems.

[0072] Among the sensors formed on the protective wall device module 10a formed on the night protective wall 10, in addition to the illuminance sensor, a CMOS camera or an infrared camera can also be formed as an object perception sensor. In addition to the object perception sensor, other sensors used for information perception can also be included.

[0073] The nighttime protection wall manufacturing management server 300, through the MPU composed of the protection wall device module 10a of each nighttime protection wall 10, can store the serial number and sensor information of each nighttime protection wall 10 in the database according to the control of the transceiver end, so as to transmit the sensor information of each nighttime protection wall 10 through the network 200.

[0074] The protective wall device module 10a can be made into a square or round shape. The solar-powered LED and sensor are installed in the painting area. The solar array of the solar-powered LED generates electricity, and the power from the battery charging can enable the operation of the LED element, sensor, transceiver, and MPU.

[0075] In other words, the structure of the protective wall device module 10a consists of a solar-powered LED and a sensor unit formed in the painted area, and the transceiver and MPU are sequentially formed into an integrated structure built into the night protective wall 10, which can be integrated with the transceiver unit and the MPU.

[0076] The transceiver can utilize various communication methods with mobile communication devices (such as LoRa), barcode communication, beacon systems, RFID systems, etc., as another embodiment of the present invention, and can directly perform wired and wireless communication through the network 200.

[0077] Therefore, the nighttime protective wall 10 can automatically control the power supply temperature (ON) according to the preset color of the LED element equipped with the photovoltaic LED when a preset object (such as a vehicle or bicycle) reaches a preset distance in the illumination range, thereby saving the power generated by the solar array formed by the solar power LED.

[0078] In another embodiment of the present invention, the nighttime protective wall manufacturing management server 300 analyzes sensor information from the network 200 and sensor information from neighboring nighttime protective walls 10. Through object recognition, it controls the power supply (ON) of the LED elements equipped with solar-powered LEDs on the nighttime protective walls 10 with sensing information based on preset colors. Then, based on the direction of the identified object, it powers on the LED elements according to their power supply direction, powers on the neighboring LEDs, and predicts the power supply based on the neighboring LEDs' power supply. This saves power used for sensor object recognition and information transmission.

[0079] In other words, the night protection wall manufacturing management server 300 forms a serial number with each location information on the night protection wall 10, forming an adjacent area between the night protection wall 10 groups, rather than between each night protection wall 10 groups. By forming the protection wall device module 10a, the sensor information of each area can be monitored.

[0080] In addition, the Nighttime Protective Wall Manufacturing Management Server 300 can perform video analysis on each object, extract a frame image from the preset time frame during video analysis, and then verify the accident event categories, including rollover, rear-end collision, lane departure, etc., when the object in the extracted frame image is riding in a vehicle or bicycle.

[0081] Among them, the Nighttime Protective Wall Manufacturing Management Server 300, with its own NPU, can analyze and execute accident event categories (rollover, rear-end collision, lane departure, etc.). It can perform machine learning-based identification on the Big Data Server 300a for various accident event categories such as rollover, rear-end collision, and lane departure, including distributed rollover pattern DSC DB, rear-end collision pattern DSC DB, and lane departure pattern DSC DB. Alternatively, it can perform difference analysis on the data groups in each pattern, and perform data pattern analysis with the patterns in each event group, and analyze the pattern of each event.

[0082] Therefore, the nighttime protective wall manufacturing management server 300 stores different pattern images in the DSC database, which correspond to the event categories of the objects extracted from the sensor information. These images are used to verify the events. By comparing the information of different pattern images themselves or the tilt, reversal, preset angle tilt, magnification, and reduction of different pattern images with the patterns contained in the frame images, each event in the frame can be analyzed.

[0083] The Night Barrier Management Server 300 has been verified to detect at least one event category. Furthermore, if at least one event category is also detected based on keywords extracted from speech recognition, the detected frame image or video information, or the location information matching the Night Barrier 10 serial number that provides speech information and each detected sensor information, can be used as the official server, including servers, etc.

[0084] In another embodiment of the present invention, the nighttime firewall manufacturing management server 300 is the object of the sensor identification firewall device module 10a. The dimming brightness value of the solar-powered LED can be set to a first brightness setting value or an nth brightness setting value (n is a natural number greater than 2). Therefore, based on the dimming brightness value and dimming state control value set by the MPU of a firewall device 10a (based on its own dimming / dimming state), the dimming brightness value is set to the dimming / dimming state. After receiving the video captured by the object identification sensor of the sensor unit, the clarity of the captured video can be analyzed to track the video.

[0085] Therefore, the nighttime firewall manufacturing management server 300 can set the brightness of one of the firewall devices 10 in the LED video of the identified object received from another firewall device module 10a within a preset distance of the nighttime firewall 10 to a brightness value higher than the set sunlight brightness value. The video captured with a brightness value brighter than the set brightness value is preferably used when the illuminance value of the illuminance sensor is higher than that captured by one of the firewall device modules 10a.

[0086] To this end, the nighttime firewall manufacturing management server 300 can provide each nighttime firewall device module 10a with a tracking function for vehicle terminals detected by the same vehicle based on object recognition or GPS location information of multiple firewall device modules 10a, and then collect video.

[0087] Furthermore, the nighttime firewall manufacturing management server 300 can also adjust the video parameter settings of the object recognition sensor in a firewall device module 10a, where the comparison image exceeds a threshold sharpness value. The parameters to be set include IR time settings, image settings, white balance settings, backlight correction (WDR) settings, noise reduction (DNR) settings, exposure settings, and defog correction settings.

[0088] This invention can also be implemented as computer-readable code in a computer-readable recording medium. Computer-readable recording media include all types of recording devices that store data readable by a computer system.

[0089] Examples of computer-readable recording media include ROM, RAM, CD-ROM, magnetic tape, floppy disk, optical data storage devices, and recording media implemented in the form of carrier waves (such as those transmitted over the Internet).

[0090] Furthermore, computer-readable recording media are distributed across network-connected computer systems, allowing for the distributed storage and execution of computer-readable code. The functional programs, code, and code segments implementing this invention can be readily deduced by programmers skilled in the art to which this invention pertains.

[0091] As described above, the preferred embodiments of the invention have been introduced in this list and drawings. Although certain terminology has been used, it is only for the purpose of illustrating the technical content of the invention and aiding in understanding the invention in a general sense, and is not intended to limit the scope of the invention. Other variations based on the technical concept of the invention may be implemented in addition to the embodiments introduced herein, which will be self-evident to those skilled in the art to which this invention pertains.

Claims

1. A method for manufacturing a nighttime protective wall utilizing a carbon-neutral smart green city environmental protection module based on circular resources, characterized in that, The method for manufacturing a nighttime protective wall using a carbon-neutral smart green city environmental protection module based on circular resources includes: In the first stage, the pre-formed environmentally friendly module composition is injected into a template for manufacturing the nighttime protective wall. The template is then installed on a vibrator and vibrated to ensure that the environmentally friendly module composition is evenly distributed within the template. In the second stage, after the vibrated template has hardened in a steam heating chamber, it is demolded and cured at room temperature; and In the third stage, the manufactured photoluminescent paint is applied to the environmentally friendly module to form a nighttime protective wall (10).

2. The method for manufacturing a nighttime protective wall using a carbon-neutral smart green city environmental protection module based on circular resources according to claim 1, characterized in that, Prior to the first stage, the process also includes the steps of preparing and supplying materials that can be recycled after the demolition of buildings through a hopper, namely, ① environmentally friendly materials equivalent to recyclable materials (including sand, gravel, and stone powder), ② additional materials equivalent to river sand, new gravel, and environmentally friendly by-products, and ③ mixing the materials in a mixer.

3. A nighttime protective wall manufacturing management system utilizing a carbon-neutral intelligent green city environmental protection module based on circular resources, characterized in that, The nighttime protective wall manufacturing management system utilizing a carbon-neutral smart green city environmental protection module based on circular resources includes: A protective wall manufacturing device (100) for manufacturing a nighttime protective wall (10) manufactures a nighttime protective wall (10) commissioned by a client terminal (400) via a nighttime protective wall manufacturing management server (300). This device mixes environmentally friendly materials equivalent to recyclable materials (including sand, gravel, and stone powder) from demolished buildings, river sand, new gravel, and additional materials as environmentally friendly byproducts to manufacture a protective wall (10) according to the specifications provided by the client terminal (400). The night protection wall manufacturing management server (300) is used to control the night protection wall manufacturing device (100) to apply photoluminescent paint to the preset spraying area on the environmental protection block of the night protection wall (10) manufacturing object to form the night protection wall (10).

4. The nighttime protective wall manufacturing management system utilizing a carbon-neutral intelligent green city environmental protection module based on circular resources as described in claim 3, is characterized in that... According to the control of the transceiver, the night protection wall manufacturing management server (300) transmits the sensing information of each night protection wall (10) through the network (200) via the MPU composed of the protection wall device modules (10a) of each night protection wall (10), and stores the serial number and sensing information of each night protection wall in the database.

5. The nighttime protective wall manufacturing management system utilizing a carbon-neutral intelligent green city environmental protection module based on circular resources as described in claim 4, characterized in that, The protective wall device module (10a) is square or round. The solar-powered LED and sensor are installed in the paint spraying area. The solar array of the solar-powered LED generates electricity and the LED elements, sensor, transceiver, and MPU of the solar-powered LED are powered by the power charged by the battery.

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