A Blockchain-based Steel Furniture Genuine Authentication and Brokerage Management AI Ferrovolt Asset Activation Platform Formation Control Device and Method

Abstract

The purpose of the present invention is to provide a blockchain-based iron furniture authenticity authentication and brokerage management type AI ferrovolt asset activation platform formation control device and method, characterized by assigning a unique ID consisting of a security tag and manufacturer / designer metadata to iron furniture, recording the history on a blockchain, monitoring the status with a sensor embedded in the iron furniture, and then connecting regular visit management, repair, exhibition monetization, and an experience exclusive to iron furniture designers to form a platform that activates iron furniture assets.

Description

Technology Field

[0001] The present invention relates to a blockchain-based authentic steel furniture and brokerage management type AI ferrovolt asset activation platform formation control device and method, which is applied to the fields of distribution and secondary trading markets for genuine high-end steel furniture, exhibition and rental operations for corporate lobbies, hotels, resorts, and showrooms, management of functional art furniture for art museums, galleries, and art fairs, premium maintenance (regular visit care) service industry, owner membership and fandom operation fields for manufacturers and designer brands, and refurbished and circular economy (resale) models. More specifically, it is characterized by assigning a unique ID consisting of a security tag and manufacturer / designer metadata to steel furniture, recording its history on a blockchain, monitoring the status with a sensor embedded in the steel furniture, and then connecting regular visit management, repair, exhibition monetization, and a dedicated experience for steel furniture designers to form a platform that activates steel furniture assets. Background Technology

[0003] Metal furniture that is trending these days is expensive.

[0004] Many designers create high-end furniture using premium steel, but companies, such as Chinese factories, copy these designs and flood the market with cheap counterfeit goods.

[0005] Since the demand for high-priced products is limited anyway, it is a league of its own; however, unless the general public evaluates the value of genuine products differently from counterfeits, steel furniture—as luxury goods selling both luxury and value assets—faces limitations in stimulating consumer desires and expanding the market.

[0006] High-end steel furniture is circulating in the market not merely as household goods, but as luxury and value goods that combine the designer's aesthetic vision with scarcity.

[0007] However, recently, as counterfeit products with similar appearances are being mass-produced and distributed by overseas manufacturers such as those in China, a problem has arisen where the value of genuine and counterfeit products is not sufficiently distinguished or recognized by general consumers.

[0008] In particular, since steel furniture has high production costs and a limited customer base, it is difficult to secure scalability and sustainability as a luxury market through simple price competition or physical identification methods alone.

[0009] Furthermore, despite the fact that long-term management is essential due to the inherent characteristics of steel materials, such as rust formation, surface damage, and structural fatigue, there is currently no systematic after-sales service or condition monitoring system in place.

[0010] Furthermore, as the premium associated with genuine steel furniture is diluted and transactions become opaque, management burdens increase and monetization is blocked, leading to a stagnation in the asset activation of steel furniture and a slump in the luxury steel furniture market. Prior art literature

[0012] Korean Patent Publication No. 10-2026-0001399 (January 5, 2026) The problem to be solved

[0013] To solve the aforementioned problems, the present invention utilizes a security and sensing tag module for steel furniture to simultaneously generate physical and digital events upon tag removal, opening, or reattachment. Since the binding record is recorded on the FerroChain for steel furniture, subsequent manipulation is impossible, thereby increasing the forgery and tamper detection rate. Furthermore, by configuring a FerroChain authentication layer module for steel furniture, the invention combines a genuine product registration smart contract, a tag and product binding contract, manufacturer and designer signatures, and TagID and TokenID to establish structural trust that the product is genuine only when the physical item, tag, and token match. Additionally, by configuring a FerroVault One-type app control module, only Top-N CTAs (instant execution buttons) are displayed at the top of the home screen. By automatically determining CTAs based on status, authority, schedule, and condition, the user behavior conversion rate (CTA execution rate) is increased. Additionally, through a context-sensitive home screen and the automatic locking and reduction of unnecessary sections, the steel furniture user The purpose is to provide a blockchain-based AI ferrovolt asset activation platform formation and control device and method for authenticating and managing genuine steel furniture, which can increase participation rates and form a closed-loop asset care where asset management is completed by configuring a CareOps Engine-type ferrovolt asset activation platform brokerage management control module, automatically executes measures when abnormal signs occur and leaves the results as evidence, overturns the existing prejudice that high-end furniture is difficult to manage, and operates a regular visit management service like water purifier care using a standard protocol, thereby transforming the luxury steel furniture market into an expandable service industry. means of solving the problem

[0015] To achieve the above objective, the blockchain-based steel furniture authenticity authentication and brokerage management type AI ferrovolt asset activation platform formation control device according to the present invention

[0016] This is achieved by configuring the system to provide intermediary management and control, thereby forming a platform that activates steel furniture assets by assigning a unique ID consisting of a security tag and manufacturer / designer metadata to steel furniture, recording its history on a blockchain, monitoring its status using sensors embedded in the steel furniture, and connecting it to regular maintenance visits, repairs, exhibition monetization, and exclusive experiences for steel furniture designers.

[0018] More specifically, the above-described blockchain-based steel furniture authenticity authentication and brokerage management type AI Ferrovolt asset activation platform formation control device comprises: a security and sensing tag module (100) mounted on steel furniture that is formed by storage on one side of the steel furniture, forms a unique ID consisting of a security tag and manufacturer / designer metadata on the steel furniture, detects the duplication, removal, and reattachment of the tag, senses corrosion, humidity, vibration, and load of the steel furniture to generate state sensing data, and transmits the generated binding record data, forgery event data, and state sensing data to a FerroChain authentication layer module for steel furniture and a CareOps Engine type Ferrovolt asset brokerage management control module;

[0019] A FerroChain authentication layer module (200) for steel furniture that performs the role of an authentication layer that is connected to a security / sensing tag module for steel furniture and a CareOps Engine type FerroVault asset brokerage management control module, and stores, verifies, and tracks the genuine product registration, tag / product binding, ownership transfer, exhibition / rental history, maintenance / repair history, and photos of the user using the steel furniture as signatures and blockchain records, and

[0020] A FerroVault One type app control module (300) that controls user interfaces (UI), permissions, and transactions, which are activated in the form of an application on the smart device screen of a user of steel furniture, and integrate and activate a steel furniture authenticity verification screen, a steel furniture designer exclusive channel, a status monitoring dashboard, regular maintenance and repair requests, scheduling, a promotion and collaboration section, an exhibition and rental market, and contracts and settlements on a single screen;

[0021] It is characterized by being composed of a CareOps Engine type FerroVault Asset Platform Brokerage Management Control Module (400) that receives detection of abnormalities in steel furniture located at the site, generates tickets, assigns technicians and companies, automatically generates schedules, records inspection results, and activates exhibitions and rentals as an operation UI on the screen, settles exhibition fees, rental fees, and platform commissions, and then transmits genuine verification data of steel furniture, a dedicated channel link window for steel furniture users, scheduling, inspection result record data, promotion and collaboration data, exhibition and rental operation data, and contract and settlement data to the FerroVault One type app control module to form a platform that activates steel furniture as an asset. Effects of the invention

[0023] As explained above, in the present invention

[0025] First, through a security and sensing tag module for steel furniture, physical and digital events are simultaneously generated when the tag is removed, opened, or reattached, and the binding record is recorded on a FerroChain for steel furniture, making subsequent manipulation impossible. This allows the detection rate of forgery and tampering to be increased by 2 to 4 times compared to the existing rate, and the tag duplication success rate to be reduced to 80% or less compared to the existing rate. Additionally, by combining corrosion, humidity, vibration, and load multi-sensors at the asset level and refining the security and sensing tag control unit at the event level, the early detection rate of abnormal signs can be improved by 1.5 to 2.5 times compared to the existing rate, the lifespan of steel furniture can be extended by 50%, and the exhibition and rental success rate can be improved by 80%.

[0027] Second, by configuring a FerroChain authentication layer module for steel furniture, the system combines the genuine product registration smart contract, tag / product binding contract, manufacturer and designer signatures, and TagID and TokenID. This establishes structural trust that authenticity is recognized only when the physical item, tag, and token match, thereby increasing the reliability of authenticity verification by 2 to 4 times compared to existing standards. Furthermore, by anchoring the chain with the tag / product binding smart contract and linking chain flags upon the occurrence of forgery events, incidents of discrepancies between physical and digital IDs can be reduced to less than 80%. Additionally, the event history smart contract allows for recording exhibition, rental, management, repair, and accident events on the chain, increasing the reliability of asset history (based on used / exhibition evaluation standards) by 2.0 to 3.5 times. Moreover, by having the verification API index chain events and the tracking control unit generate tracking graphs based on chronological order and value impact, the processing time for authenticity and history verification is shortened by 80% compared to existing standards, and for brokerage and exhibition The speed of decision-making can be improved by 2 to 3 times compared to the existing speed.

[0029] Third, by configuring a FerroVault One-type app control module, only Top-N CTAs (instant execution buttons) are displayed at the top of the home screen through the FerroVault One-type intelligent control unit, and CTAs are automatically determined based on status, authority, schedule, and condition. This allows for a 1.5 to 2-fold increase in user behavior conversion rates (CTA execution rates) compared to the existing system. Furthermore, it enables a shift in perception that steel furniture is an asset whose value is maintained and whose lifespan is extended if managed, rather than one that depreciates over time. Additionally, through recommendations and filtering based on condition, environment, schedule, and risk, the success rate of exhibition and rental markets can be improved by 2 to 3 times compared to the existing system, and the entire process from contract to settlement is connected in a single flow. Moreover, through a context-customized home screen and the automatic locking and reduction of unnecessary sections, the engagement rate of steel furniture users can be increased by 1.5 to 3 times compared to the existing system, and the time spent on the app can be increased by 80% compared to the existing system.

[0031] Fourth, the configuration of the CareOps Engine-type Ferrovolt Asset Activation Platform Brokerage Management Control Module forms a closed-loop Asset Care system where asset management is completed. Consequently, if abnormal signs occur, corrective actions are automatically executed, the results are recorded as evidence, and this evidence is notarized to be tamper-proof, thereby improving asset value and transaction reliability by 80% compared to existing methods. Furthermore, regular visit maintenance services, such as water purifier care, operate using standard protocols, transforming the luxury steel furniture market into an expandable service industry. This can increase the interest of steel furniture consumers by 1.5 to 2 times. Additionally, exhibitions and rentals are converted from transactions based on listings on brokerage platforms into operational service packages (Operations-as-a-Product), increasing market trust and success rates by 2 to 3 times. Finally, through the App Transmission and Screen Activation Data Generation Control Unit, verification, scheduling, reports, market operations, and settlements can be integrated and transmitted as UI packets, allowing for [competent] operations without complex calculations The integration status can be displayed immediately on a single screen, and changes in the operating status are quickly reflected in the UI, which can induce and form user action (CTA) conversion points 1.5 to 2 times faster than before. Brief explanation of the drawing

[0033] FIG. 1 is a block diagram illustrating the components of a blockchain-based iron furniture authenticity authentication and brokerage management type AI ferrovolt asset activation platform formation control device (1) according to the present invention. FIG. 2 is a configuration diagram illustrating the components of a blockchain-based iron furniture authenticity authentication and brokerage management type AI ferrovolt asset activation platform formation control device (1) according to the present invention. FIG. 3 is a block diagram illustrating the components of a security and sensing tag module for mounting on steel furniture according to the present invention, FIG. 4 is an embodiment illustrating a security and sensing tag module for mounting on steel furniture according to the present invention installed on steel furniture. FIG. 5 is an enlarged illustration of the components of a security and sensing tag module for mounting on steel furniture according to the present invention. FIG. 6 is a block diagram illustrating the components of a metadata binding unit according to the present invention, FIG. 7 is a block diagram illustrating the components of a multi-sensor unit for steel furniture according to the present invention. FIG. 8 is a block diagram illustrating the components of a FerroChain authentication layer module for steel furniture according to the present invention. FIG. 9 is an exemplary embodiment illustrating the external appearance of a FerroChain authentication layer module for steel furniture according to the present invention. FIG. 10 is a block diagram illustrating the components of a smart contract unit for genuine product registration of steel furniture according to the present invention. FIG. 11 is a block diagram illustrating the components of a smart contract unit for tag / product binding according to the present invention. FIG. 12 is a block diagram illustrating the components of a smart contract unit for managing ownership and rights according to the present invention. FIG. 13 is a block diagram illustrating the components of a smart contract unit for a steel furniture usage photo according to the present invention. FIG. 14 is a block diagram illustrating the components of a hash anchoring control unit according to the present invention, FIG. 15 is a block diagram illustrating the components of a verification API unit according to the present invention, FIG. 16 is a block diagram illustrating the components of a tracking control unit according to the present invention, FIG. 17 is a block diagram illustrating the components of a FerroVault One type app control module according to the present invention, FIG. 18 is an exemplary illustration showing the components of a FerroVault One type app control module according to the present invention. FIG. 19 is a block diagram illustrating the components of a FerroVault One forming activity control unit according to the present invention. FIG. 20 is an exemplary embodiment illustrating the components of an integrated home activity unit according to the present invention. FIG. 21 is an exemplary embodiment illustrating the components of the genuine product verification activity unit according to the present invention. FIG. 22 is an exemplary embodiment illustrating the components of an activity unit dedicated to a steel furniture designer according to the present invention. FIG. 23 is an exemplary embodiment illustrating the components of a status dashboard activity unit according to the present invention, FIG. 24 is an exemplary embodiment illustrating the components of a periodic maintenance and repair request activity unit according to the present invention. FIG. 25 is an exemplary embodiment illustrating the components of a scheduling activity unit according to the present invention. FIG. 26 is an exemplary illustration showing the components of an exhibition and rental market activity unit according to the present invention. FIG. 27 is an exemplary embodiment illustrating the components of a contract and settlement activity unit according to the present invention. FIG. 28 is a block diagram illustrating the components of a FerroVault One forming intent control unit according to the present invention. FIG. 29 is a block diagram illustrating the components of an intent receiver control unit for forming a FerroVault One according to the present invention. FIG. 30 is a block diagram illustrating the components of a FerroVault One forming service control unit according to the present invention. FIG. 31 is a block diagram illustrating the components of an intelligent control unit for forming a FerroVault One according to the present invention. FIG. 32 is an exemplary embodiment illustrating the components of an AI learning control unit according to the present invention. FIG. 33 is an exemplary embodiment illustrating the components of an intelligent judgment control unit according to the present invention. FIG. 34 is an exemplary embodiment illustrating the components of a condition scoring control unit according to the present invention. FIG. 35 is an exemplary embodiment illustrating the components of a priority determination control unit according to the present invention, FIG. 36 is an exemplary embodiment illustrating the components of a recommendation and matching control unit according to the present invention. FIG. 37 is an exemplary embodiment illustrating the components of a home screen dynamic configuration control unit according to the present invention. FIG. 38 is an exemplary embodiment illustrating the components of a fraud / abnormal behavior detection unit according to the present invention. FIG. 39 is a block diagram illustrating the components of a CareOps Engine-type Ferrovolt Asset Platform brokerage management control module according to the present invention. FIG. 40 is an exemplary embodiment illustrating the components of a CareOps Engine-type Ferrovolt Asset Platform brokerage management control module according to the present invention. FIG. 41 is a block diagram illustrating the components of an event collection and normalization control unit according to the present invention, FIG. 42 is a block diagram illustrating the components of an AI anomaly detection and risk level calculation control unit according to the present invention. FIG. 43 is a block diagram illustrating the components of a ticket / work order generation control unit according to the present invention, FIG. 44 is a block diagram illustrating the components of an article / company matching / assignment control unit according to the present invention. FIG. 45 is a block diagram illustrating the components of an automatic scheduling generation unit according to the present invention, FIG. 46 is a block diagram illustrating the components of an inspection execution and report generation control unit according to the present invention, FIG. 47 is a block diagram illustrating the components of a blockchain anchoring interlocking control unit according to the present invention, FIG. 48 is a block diagram illustrating the components of an exhibition and rental operation control unit according to the present invention, FIG. 49 is a block diagram illustrating the components of a contract and settlement control unit according to the present invention, FIG. 50 is a block diagram illustrating the components of an app transmission / screen activation data generation control unit according to the present invention. FIG. 51 is an exemplary diagram illustrating the operation process of a blockchain-based AI ferrovolt asset activation platform formation control device for authenticating and managing genuine steel furniture according to the present invention. FIG. 52 is a flowchart illustrating a method for controlling the formation of a blockchain-based AI Ferrovolt asset activation platform for authenticating and brokering steel furniture according to the present invention. FIG. 53 is a flowchart illustrating a specific process of forming a unique ID consisting of a security tag and manufacturer / designer metadata on steel furniture through a security / sensing tag module mounted on steel furniture according to the present invention, detecting duplication, removal, and reattachment of the tag, sensing corrosion, humidity, vibration, and load of the steel furniture to generate state sensing data, and transmitting the generated binding record data, tampering event data, and state sensing data to a FerroChain authentication layer module for steel furniture and a CareOps Engine type FerroVault asset brokerage management control module. FIG. 54 is a flowchart illustrating a specific process of performing the role of an authentication layer that stores, verifies, and tracks the genuine product registration, tag / product binding, ownership transfer, exhibition / rental history, maintenance / repair history, and user photos of the steel furniture usage as signatures and blockchain records through a FerroChain authentication layer module for steel furniture according to the present invention. FIG. 55 is a flowchart illustrating a specific process of receiving detection of an abnormality in steel furniture located at the site, generating a ticket, assigning a technician / company, automatically generating a schedule, recording inspection results, activating exhibition / rental as an operation UI on the screen, and settling exhibition fees, rental fees, and platform commissions through a CareOps Engine-type Ferrovolt Asset Platform brokerage management control module according to the present invention. FIG. 56 is a flowchart illustrating a specific process for controlling a user interface (UI), authority, and transactions that integrates and activates a genuine product verification screen for steel furniture, a dedicated channel for steel furniture designers, a status monitoring dashboard, regular maintenance and repair requests, scheduling, a promotion and collaboration section, an exhibition and rental market, and contracts and settlements on a single screen through a FerroVault One type app control module according to the present invention. Specific details for implementing the invention

[0035] First, the iron furniture described in the present invention refers to forming a desk, shelf, storage cabinet, bed, and chair using a metal material selected from steel, aluminum, or stainless steel.

[0037] Next, the FerroVault One described in the present invention is FERRO (iron) + VAULT (safe, value storage) + ONE (integration of all functions), and refers to storing the authenticity, history, condition, experience, and profits of iron furniture in a single safe and activating them on a smart device screen.

[0039] Next, the major difference between the present invention and the prior art is, first, that it has the characteristic of forming a Ferrovolt asset activation platform (=steel furniture asset platform) in which the value of steel furniture is explained by verifiable data (authenticity, ownership, condition, exhibition history, management history, and user photo sharing (=memories)) rather than relying solely on intuition or brand image, by assigning a unique ID (security tag + manufacturer / designer metadata) to each piece of steel furniture and accumulating full lifecycle information regarding production, distribution, ownership, management, exhibition and rental, revenue, and redistribution via blockchain.

[0040] Second, in an environment where counterfeit products with similar appearances are distributed, the FerroVault One-type app control module, which includes an edge-type AI module, enables general consumers to verify authenticity and the continuity of history simply by scanning, thereby maintaining and expanding the trust base of the genuine product market.

[0041] Third, since corrosion, humidity, vibration, and load changes directly affect the long-term performance and lifespan of steel furniture, this system features the implementation of a preventive maintenance system at the platform level. This is achieved by early detection of abnormal signs through security and sensing tag modules installed on the furniture and linking this with regular on-site maintenance and repairs, rather than relying on manual responses after breakdowns or damage occur.

[0042] Fourth, through the CareOps Engine-type Ferrovolt Asset Activation Platform brokerage management control module, it provides a dedicated channel for steel furniture users, designer communication, educational content, and limited events, thereby making steel furniture not just a simple object but a value good combined with knowledge, experience, and relationships, and has the characteristic of strengthening its luxury value (scarcity and cultural value).

[0043] Fifth, through the CareOps Engine-type Ferrovolt Asset Activation Platform brokerage management control module, it systematizes exhibition history, contracts, and settlement details, and has the characteristic of forming a profit-generating distribution and operation market that includes exhibition, rental, and settlement, rather than just being an asset to hold steel furniture.

[0045] Hereinafter, preferred embodiments according to the present invention will be described with reference to the accompanying drawings.

[0046] FIG. 1 is a block diagram illustrating the components of a blockchain-based AI ferrovolt asset activation platform formation control device (1) for authenticating and managing genuine steel furniture according to the present invention, and FIG. 2 is a configuration diagram illustrating the components of a blockchain-based AI ferrovolt asset activation platform formation control device (1) for authenticating and managing genuine steel furniture according to the present invention. This is configured to assign a unique ID consisting of a security tag and manufacturer / designer metadata to steel furniture, record the history on a blockchain, monitor the status with a sensor embedded in the steel furniture, and then connect regular visit management, repair, exhibition monetization, and a dedicated experience for steel furniture designers to form a platform for activating steel furniture assets.

[0048] More specifically, the above-mentioned blockchain-based steel furniture authenticity authentication and brokerage management type AI FerroVault asset activation platform formation control device (1) is composed of a security and sensing tag module (100) for steel furniture mounting, a FerroChain authentication layer module (200) for steel furniture, a FerroVault One type app control module (300), and a CareOps Engine type FerroVault asset platform brokerage management control module (400).

[0050] First, a security and sensing tag module (100) for mounting on steel furniture according to the present invention will be described.

[0051] The above-mentioned security and sensing tag module (100) for mounting on steel furniture is formed by being stored on one side of the steel furniture, and forms a unique ID consisting of a security tag and manufacturer / designer metadata on the steel furniture, detects duplication, removal, and reattachment of the tag, and senses corrosion, humidity, vibration, and load of the steel furniture to generate state sensing data, and transmits the generated binding record data, tampering event data, and state sensing data to the FerroChain authentication layer module for steel furniture and the CareOps Engine type FerroVault asset brokerage management control module.

[0052] As illustrated in FIGS. 3 and 5, this consists of a tag module body (110), an NFC security tag unit (120), a metadata binding unit (130), a forgery detection unit (140), a multi-sensor unit for steel furniture (150), a security / sensing tag control unit (160), a communication unit (170), and a power supply unit (180).

[0054] First, the tag module body (110) according to the present invention will be described.

[0055] The above tag module body (110) is formed in a square box shape and serves to protect and support each device from external pressure.

[0056] As shown in FIG. 4, it is formed into a slim rectangular box shape with dimensions of 2 cm in width × 4 cm in length × 1 cm in height. In addition, it is formed with various width × length × height dimensions.

[0057] And, it is formed by attaching it to the internal space of the steel furniture frame or one side of the exterior using magnets or adhesive.

[0058] In addition, an NFC security tag unit is formed on one side of the internal space, a metadata binding unit is formed on one side of the NFC security tag unit, a forgery detection unit is formed on one side of the metadata binding unit, a multi-sensor unit for steel furniture is formed on one side of the forgery detection unit, a security / sensing tag control unit is formed on one side of the multi-sensor unit for steel furniture, a communication unit is formed on one side of the security / sensing tag control unit, and a power supply unit is formed on one side of the communication unit.

[0060] Second, the NFC security tag part (120) according to the present invention will be described.

[0061] The NFC security tag unit (120) is located on one side of the internal space of the tag module body and, when scanned by a FerroVault One type app control module, serves to authenticate using a challenge-response method to prove that the tag is genuine and to prevent tag duplication.

[0062] This consists of an NFC antenna coil section, a secure element (SE or eSE), a unique key / certificate storage section, a random number generator section, and a challenge / response authentication protocol stack section.

[0064] That is, when an NFC scan is performed, the FerroVault One type app control module transmits a challenge (random number) to the tag.

[0065] Next, the tag signs and performs cryptographic operations with the internal key to send a response.

[0066] Next, a CareOps Engine-type Ferrovolt asset brokerage management control module verifies the response and determines it to be a genuine tag.

[0068] Third, a metadata binding unit (130) according to the present invention will be described.

[0069] The above metadata binding unit (130) hashes metadata regarding manufacturing, designer, production time, and material characteristics to form binding record data consisting of unique ID components combined with the tag ID of the NFC security tag unit, and transmits the formed binding record data to the security and sensing tag control unit.

[0070] As illustrated in FIG. 6, this consists of a metadata hash generation unit (131), a binding recording storage unit (132), a version management unit (133), and a local cache unit (134).

[0072] The above metadata hash generation unit (131) standardizes the original metadata regarding the manufacturing, designer, production time, and material characteristics of the steel furniture, and then generates a one-way hash value for the original metadata to form a unique ID component that is combined with the tag ID of the NFC security tag unit.

[0074] The binding recording storage unit (132) combines the metahash transmitted from the metadata hash generation unit with the tag ID and product token ID (TokenID) of the NFC security tag unit to generate and store binding record data.

[0076] The above version management unit (133) is responsible for managing changes in metadata and binding records as versions when changes in manufacturing specifications, refurbishment (repainting and parts replacement), display changes due to ownership transfer, or grade changes occur for the same steel furniture.

[0078] The above local cache unit (134) serves to store a portion of the binding record, recent verification results, and the latest version identifier in a form available for use by the NFC security tag unit or the near-field gateway of the FerroVault One type app control module.

[0080] In other words, when manufacturing steel furniture, the metadata original is generated.

[0081] Next, a hash is generated, and binding record data is formed along with the TagID.

[0082] Next, the formed binding record data is transmitted to the FerroChain authentication layer module for steel furniture.

[0084] Fourth, the forgery detection unit (140) according to the present invention will be described.

[0085] The above counterfeit detection unit (140) senses traces when the tag module body is removed from the metal furniture, the housing is opened, or it is reattached, generates a counterfeit event, and transmits it to the security / sensing tag control unit.

[0086] This consists of a single-linear sealing circuit, a micro switch that detects cover opening, a Hall sensor that detects deviation from the original position, a light sensor that senses light ingress when the case is opened, and a forgery event log storage unit that stores forgery event logs.

[0088] Fifth, a multi-sensor unit (150) for steel furniture according to the present invention will be described.

[0089] The above-mentioned multi-sensor unit (150) for steel furniture is responsible for sensing corrosion, humidity, vibration, and load of steel furniture and generating state sensing data.

[0090] As shown in FIG. 7, this consists of a corrosion estimation sensor unit (151), a humidity sensor unit (152), a temperature sensor unit (153), a vibration sensor unit (154), and a load sensor unit (155).

[0092] The above corrosion estimation sensor unit (151) is located on one side of the bottom of the metal frame of the iron furniture and plays the role of sensing oxidation and corrosion by estimating the possibility of oxidation and corrosion progressing on the iron surface through electrochemical changes.

[0093] This comprises a surface resistance change sensing electrode made of a metal pattern electrode, a corrosion coupon sensor made of a sacrificial metal electrode, an electrochemical impedance measuring unit, a sensor signal amplification unit, a filter circuit unit, and

[0094] It consists of a reference value calibration parameter section for storing long-term trends.

[0096] The humidity sensor unit (152) is located on one side of the interior space of the steel furniture and serves to sense the relative humidity around and inside the steel furniture.

[0097] This is configured by selecting either a polymer type humidity sensor or a ceramic type humidity sensor.

[0099] The above temperature sensor unit (153) is located on one side of the humidity sensor unit and serves to sense the temperature around and inside the steel furniture.

[0100] This is configured by selecting either a digital temperature sensor or a thermistor.

[0102] The above vibration sensor unit (154) is located on one side of the frame where structural vibrations of the steel furniture are concentrated, and serves to sense micro-vibrations, repetitive vibrations, and shocks during transportation during use.

[0103] This includes a 3-axis accelerometer (IMU), shock peak detection circuit, vibration RMS unit, and accumulated energy calculation control unit.

[0104] It consists of a parameter section for distinguishing between transport mode and usage mode.

[0106] The load sensor unit (155) is located on one side of the lower part of the steel furniture and serves to sense the load applied to the steel furniture.

[0107] This consists of a strain gauge, a bridge circuit, and a temperature compensation circuit.

[0109] In this way, a multi-sensor unit for steel furniture is configured, consisting of a corrosion estimation sensor unit, a humidity sensor unit, a temperature sensor unit, a vibration sensor unit, and a load sensor unit. This unit senses the corrosion, humidity, vibration, and load of the steel furniture to generate state sensing data, which is then converted into a state score calculation logic to form the steel furniture into a manageable asset.

[0111] Sixth, the security and sensing tag control unit (160) according to the present invention will be described.

[0112] The above security and sensing tag control unit (160) is connected to the NFC security tag unit, metadata binding unit, tamper detection unit, multi-sensor unit for steel furniture, communication unit, and power supply unit, and controls the overall operation of each device while transmitting the generated binding record data, tamper event data, and status sensing data to the communication unit.

[0114] Seventh, the communication unit (170) according to the present invention will be described.

[0115] The above communication unit (170) is located on one side of the security and sensing tag control unit and serves to transmit binding record data, tampering event data, and status sensing data to the FerroChain authentication layer module for steel furniture and the CareOps Engine type Ferrovolt asset brokerage management control module.

[0116] This consists of a BLE module, Wi-Fi module, LTE-M module, NB-IoT module, and transmission protocols (MQTT, HTTPS, CoAP).

[0118] Eighth, the power supply unit (180) according to the present invention will be described.

[0119] The above power supply unit (180) serves to supply power to the entire module.

[0120] This consists of a lithium-ion battery or a lithium-ion polymer battery.

[0121] In addition, it consists of a protection circuit, a voltage regulator, a power switching circuit, a battery level measurement and calculation unit, and a low-power sleep-wake-up circuit unit.

[0123] [Sequence 1: Manufacturing / Registration (Unique ID Formation)]

[0125] First, the tag module body is sealed and mounted at a specific designated location on the metal furniture.

[0126] Next, the TagID and key-based authentication are prepared through the NFC security tag section.

[0127] Next, the metadata binding unit generates a manufacturing / designer metadata hash.

[0128] Next, the metadata binding section forms binding record data (TagID↔Meta-hash↔TokenID input value) together with TagID.

[0129] Next, the binding record data (TagID↔Metahash↔TokenID input values) is transmitted to the FerroChain authentication layer module for steel furniture.

[0131] [Sequence 2: Authenticity Verification (User Scan)]

[0133] First, the user scans the NFC using a FerroVault One-type app control module.

[0134] Next, the authenticity of the tag is verified through a challenge and response via the NFC security tag section.

[0135] Next, the FerroChain authentication layer module for steel furniture queries the chain binding with TagID and displays the genuine flag.

[0137] [Sequence 3: Status Monitoring and Anomaly Notification]

[0139] First, the multi-sensor unit for steel furniture collects state sensing data by sensing corrosion, humidity, vibration, and load of the steel furniture.

[0140] Next, the state sensing data is filtered through the security and sensing tag control unit, and the risk level is calculated after trend analysis.

[0141] Next, the security and sensing tag control unit generates an event when the warning condition is satisfied.

[0142] Next, the communication unit transmits the state sensing data and the event generation signal to the CareOps Engine-type Ferrovolt Asset Activation Platform Intermediary Management Control Module.

[0143] Next, the CareOps Engine-type Ferrovolt Asset Activation Platform brokerage management control module automatically generates tickets, assigns drivers and companies, and generates schedules.

[0145] [Sequence 4: Tampering Detection]

[0147] First, through the tamper detection unit, traces are detected when the tag module body is removed from the metal furniture, the housing is opened, or it is reattached, generating a tamper event and transmitting it to the security and sensing tag control unit.

[0148] Next, the security and sensing tag control unit analyzes the severity based on the forgery event, and then transmits a transaction suspension and risk signal to the CareOps Engine-type Ferrovolt Asset Activation Platform Brokerage Management Control Module through the communication unit.

[0150] Thus, by configuring a security and sensing tag module for steel furniture comprising a tag module body, an NFC security tag unit, a metadata binding unit, a forgery detection unit, a multi-sensor unit for steel furniture, a security and sensing tag control unit, a communication unit, and a power unit, physical and digital events are simultaneously generated upon tag removal, opening, or reattachment. Since the binding record is recorded on the FerroChain for steel furniture, subsequent manipulation is impossible, thereby increasing the forgery detection rate by 2 to 4 times compared to existing methods and reducing the tag duplication success rate to 80% or less. Furthermore, corrosion, humidity, vibration, and load multi-sensors are combined at the asset level,

[0151] By refining the security and sensing tag control unit into event units, the early detection rate of abnormal signs can be improved by 1.5 to 2.5 times compared to the existing rate, and the lifespan of steel furniture can be extended by 50%, while the success rate of exhibition and rental can be improved by 80%.

[0153] Next, a FerroChain authentication layer module (200) for iron furniture according to the present invention will be described.

[0154] The above FerroChain authentication layer module (200) for steel furniture is connected to a security / sensing tag module for steel furniture and a CareOps Engine type FerroVault asset brokerage management control module, and performs the role of an authentication layer that stores, verifies, and tracks the genuine registration of steel furniture, tag / product binding, ownership transfer, exhibition / rental history, maintenance / repair history, and photos of the user's use of steel furniture as signatures and blockchain records.

[0155] As illustrated in FIGS. 8 and 9, this consists of a smart contract unit (210) for registering genuine steel furniture, a smart contract unit (220) for tag / product binding, a smart contract unit (230) for managing ownership / rights, a smart contract unit (240) for event history, a smart contract unit (250) for photos of steel furniture in use, a hash anchoring control unit (260), a verification API unit (270), and a tracking control unit (280).

[0157] First, the smart contract unit (210) for registering genuine steel furniture according to the present invention will be described.

[0158] The smart contract unit (210) for the registration of genuine steel furniture above plays the role of enabling the manufacturer and designer to generate a genuine product registration event based on the unique ID information of the steel furniture, and to generate a Token ID representing the steel furniture to register it as a genuine asset.

[0159] As illustrated in FIG. 10, this consists of an input field section (211) for registering genuine steel furniture that forms an input field for registering genuine steel furniture, a signature verification section (212) for verifying a signature, and an output section (213) for forming a token ID, a mint hash, and a mint timestamp.

[0160] The above-mentioned input field section (211) for registering genuine steel furniture is composed of ManufacturerDID, DesignerDID, Model / Collection ID, ManufacturingTime which adjusts privacy on a monthly and quarterly basis, MaterialSpecHash which forms a hash of the original material specification, ProductPhotoHash which hashes the official product photo, and MetaHash which hashes the metadata binding section.

[0162] The above signature verification unit (212) consists of a manufacturer signature (SignManufacturer) and a designer signature (SignDesigner).

[0164] The above output unit (213) consists of a Token ID, a Mint Hash, and a Mint Timestamp.

[0166] In other words, manufacturers and designers prepare meta-hashes, material hashes, and official photo hashes.

[0167] Next, call the product registration execution function (mintProduct()) and submit the signature.

[0168] Next, the smart contract for genuine steel furniture registration verifies the signature validity and issues a Token ID.

[0169] Next, the registration event is recorded in the chain and becomes viewable.

[0171] Second, a smart contract unit (220) for tag and product binding according to the present invention will be described.

[0172] The smart contract unit (220) for tag / product binding above combines the TagID transmitted from the security / sensing tag module for steel furniture installation with the TokenID generated from the smart contract unit for steel furniture genuine product registration, and serves to permanently record on the chain that this tag is a genuine tag of this steel furniture.

[0173] As illustrated in FIG. 11, this consists of a bindTag() (221) that binds TagID and TokenID, an unbindOrRebind() part (222) that restricts rebinding when officially refurbished or parts replaced, an input field part (223) for tag / product binding that forms an input field for tag / product binding, and a tamper flag part (224) that forms a tamper flag and a tamper event hash.

[0174] Here, the input field for tag / product binding consists of TokenID, TagID, TagPubKeyDigest, BindProof representing a summary value of the tag challenge / response result, and BindTimestamp.

[0176] In other words, the security and sensing tag module for steel furniture generates TagID and challenge and response evidence.

[0177] Next, the CareOps Engine-type FerroVault Asset Activation Platform Brokerage Management Control Module generates a bind tag transaction.

[0178] Next, the smart contract part for tag and product binding verifies the binding policy and records it in combination on the chain.

[0179] Next, when NFC is scanned with a FerroVault One type app control module, the TokenID is looked up using the TagID.

[0181] Third, the smart contract unit (230) for managing ownership and rights according to the present invention will be described.

[0182] The above-mentioned smart contract unit (230) for managing ownership and rights manages the transfer of ownership or usage rights regarding the sale, transfer, inheritance, and rental of steel furniture, and restricts the exercise of rights in special situations such as disputes, theft, and seizure.

[0183] As illustrated in FIG. 12, this consists of a transferOwnership() (231) that forms a transfer of ownership, a rantUsageRight() (232) that grants rental and exhibition usage rights, a freezeAsset(), unfreezeAsset() (233) that stops trading in case of dispute or theft, and an input field section (234) for managing ownership and rights that forms an input field for managing ownership and rights.

[0184] Here, the input field for ownership and rights management consists of FromOwnerDID, ToOwnerDID, TransferType(sale / gift / inheritance / rental), ContractHash() which forms the contract hash and selection, and EffectivePeriod() which forms the rental and usage period.

[0186] In other words, generating a sales and transfer contract regarding steel furniture produces a contract hash.

[0187] Next, execute transferOwnership() with signatures from both parties.

[0188] Next, update the rights status and automatically update the owner authority in the CareOps Engine-type Ferrovolt Asset Activation Platform Brokerage Management Control Module.

[0189] Here, the owner refers to a steel furniture designer or a steel furniture user.

[0191] Fourth, the smart contract part (240) for event history according to the present invention will be described.

[0192] The above-mentioned smart contract section (240) for event history records major events related to exhibition, rental, management, repair, and accidents as history, and forms them so that they can be traced in the chain.

[0193] This consists of an event formation unit that forms major events regarding Record Exhibition, Record Rental, Record Maintenance, Record Repair, and Report Incident, and a common field formation unit that forms common fields for event history.

[0195] The above common field forming part consists of TokenID, EventType, EventTimestamp, EventEvidenceHash representing the proof hash, IssuerDID forming the exhibition hall, service provider, and platform, an inspection score, and Severity / Score representing the incident severity.

[0197] First, the CareOps Engine-type Ferrovolt Asset Activation Platform Brokerage Management Control Module generates inspection reports and exhibition contract proof hashes.

[0198] Next, execute the event log transaction.

[0199] Next, the event history summary card is displayed in the CareOps Engine-type Ferrovolt Asset Activation Platform Brokerage Management Control Module.

[0201] Fifth, the smart contract section (250) for the use of steel furniture according to the present invention will be described.

[0202] The smart contract unit (250) for the above-mentioned steel furniture usage photo records the hash, time of shooting, authorization information, and signature of the steel furniture usage photo taken by the steel furniture user on the chain through a FerroVault One type app control module, and serves to prove (Proof of Existence) that the steel furniture usage photo existed at a specific point in time.

[0203] Here, the photos of the steel furniture in use consist of installation environments, exhibition scenes, and interior staging photos.

[0204] As illustrated in FIG. 13, this consists of a registerUsagePhotoProof() (251) for registering a photo of the use of steel furniture, an input field section (252) for forming an input field for the photo of the use of steel furniture, and a ViewAccessTokenHash (253) for forming a hash of the viewing permission token.

[0205] Here, the input field consists of a TokenID, a PhotoHash that forms the original image hash, an OwnerDID, a ConsentFlag that forms consent regarding public, private, and display sharing, an IPFS CID hash, and a StoragePointerHash that forms the selection.

[0207] In other words, the original photo of the metal furniture taken by the user is hashed locally.

[0208] Next, upload a photo of the steel furniture in use to the off-chain storage and create a pointer.

[0209] Next, the photohash, authorization information, and signature are recorded in registerUsagePhotoProof().

[0210] Next, if necessary, allow only authorized users to view the original.

[0211] In this case, the chain only proves its existence.

[0213] Sixth, the hash anchoring control unit (260) according to the present invention will be described.

[0214] The above hash anchoring control unit (260) plays the role of storing reports, contracts, photos, and original proofs off-chain and anchoring the hash of the originals to the chain to prevent tampering with the originals.

[0215] As illustrated in FIG. 14, this consists of a hash generation unit (261), an off-chain storage linkage unit (262) that links with IPFS and the cloud, an anchoring transaction generation unit (263), and an expiration / access authority policy unit (264).

[0217] Seventh, the verification API section (270) according to the present invention will be described.

[0218] The above verification API section (270) indexes chain events so that the CareOps Engine-type Ferrovolt Asset Activation Platform Brokerage Management Control Module queries and verifies chain data, and forms the tag scan-based verification result into a standard response.

[0219] As illustrated in FIG. 15, this consists of a reverse lookup API (271) that reverses from TagID to TokenID, a TokenID history summary API (272) that forms recent checks, displays, and flags, a rights status lookup API (273) that forms owners, usage rights, and transaction suspensions, and a signature verification service unit (274) that verifies DID certificates of manufacturers and service providers.

[0221] Eighth, the tracking control unit (280) according to the present invention will be described.

[0222] The above tracking control unit (280) plays the role of controlling the generation of a tracking graph that can be tracked and visualized in chronological order, by type, and by value impact by linking ownership, exhibition, management, repair, and photographic evidence from the production of the steel furniture to the present.

[0223] As illustrated in FIG. 16, this consists of an event timeline generation control unit (281) that sorts in chronological order, a relationship graph generation control unit (282) that generates a relationship graph by connecting the owner, exhibition hall, service provider, and event, and a value impact analysis control unit (283) that analyzes value impact based on inspection score, accident severity, and number of exhibitions.

[0225] [Sequence 1: Product Registration + Tag Binding]

[0227] First, a TagID and a metahash are generated through a security and sensing tag module for steel furniture and transmitted to a CareOps Engine-type Ferrovolt asset activation platform intermediary management control module.

[0228] Next, through the smart contract for genuine product registration of steel furniture, the manufacturer and designer trigger a genuine product registration event based on the unique ID information of the steel furniture and generate a TokenID representing the steel furniture.

[0229] Next, through the smart contract part for tag and product binding, the TagID and the TokenID are combined to permanently record on the chain that this tag is the genuine tag of this iron furniture.

[0230] Next, the registration completion status is provided through the verification API section.

[0232] [Sequence 2: User Scan Authenticity Verification]

[0234] First, through a FerroVault One type app control module, when a security and sensing tag module for steel furniture is NFC-tagged, the authenticity of the tag is verified using a challenge-response method.

[0235] Next, when the TagID is queried through the verification API, the TokenID is returned.

[0236] Next, return the event and entitlement status summary and display it on the FerroVault One type app control module.

[0238] [Sequence 3: Inspection / Repair History Record]

[0240] First, when the CareOps Engine-type Ferrovolt Asset Activation Platform Brokerage Management Control Module generates the original report regarding inspection and repair history, it generates a hash.

[0241] Next, the original hash is recorded in the smart contract for event history through the hash anchoring control unit.

[0242] Next, the tracking control unit updates the timeline.

[0244] [Sequence 4: Exhibition and Rental Records]

[0246] First, generate a hash of the evidence regarding the exhibition contract, installation, and retrieval.

[0247] Next, the smart contract section for event history records Exhibition (RecordExhibition) and Rental (RecordRental).

[0248] Next, the settlement result is anchored to the off-chain original hash.

[0250] [Sequence 5: Proof of Existence of Used Photograph]

[0252] First, generate a hash for the photos of the metal furniture taken by the metal furniture user, and set public and private permissions.

[0253] Next, a PhotoHash is recorded in the smart contract section for the photo of the steel furniture in use.

[0254] Next, if necessary, allow only authorized users to view the original.

[0255] At this time, the chain only proves.

[0257] Thus, by configuring a FerroChain authentication layer module for steel furniture consisting of a smart contract section for genuine product registration, a smart contract section for tag / product binding, a smart contract section for ownership / rights management, a smart contract section for event history, a smart contract section for steel furniture usage photos, a hash anchoring control section, a verification API section, and a tracking control section, this improves upon the existing situation where the detection rate of counterfeit products based on simple NFT tags and serial numbers is less than 25%. By combining the genuine product registration smart contract, the tag / product binding contract, manufacturer and designer signatures, and TagID and TokenID, structural trust is established that authenticity is recognized only when the physical item, tag, and token match, thereby increasing the reliability of genuine product verification by 2 to 4 times compared to the existing system. Furthermore, by anchoring the chain with the tag / product binding smart contract and linking the chain flag upon the occurrence of forgery events, incidents of discrepancies between the physical item and the digital ID can be reduced to less than 80% compared to the existing system, and the event history section By using smart contracts, display, rental, management, repair, and accident events can be recorded on the chain, which can increase the reliability of asset history (based on second-hand / display evaluation criteria) by 2.0 to 3.5 times compared to the existing method. Additionally, by having the verification API index chain events and the tracking control unit generate tracking graphs based on chronological order and value impact, the processing time for authenticity and history verification can be reduced by 80% compared to the existing method, and the speed of brokerage and display decision-making can be improved by 2 to 3 times compared to the existing method.

[0259] Next, a FerroVault One type app control module (300) according to the present invention will be described.

[0260] The above FerroVault One type app control module (300) is activated in the form of an application on the screen of a user's smart device using steel furniture, and plays a role in controlling the user interface (UI), permissions, and transactions that integrate and activate the genuine product verification screen of steel furniture, a dedicated channel for steel furniture designers, a status monitoring dashboard, regular maintenance and repair requests, scheduling, promotion and collaboration sections, exhibition and rental markets, and contracts and settlements on a single screen.

[0261] Here, FerroVault One is FERRO (iron) + VAULT (safe, value storage) + ONE (integration of all functions), and refers to storing the authenticity, history, condition, experience, and profits of iron furniture in a single safe and activating them on a smart device screen.

[0262] As illustrated in FIGS. 17 and 18, this consists of a FerroVault One forming activity control unit (310), a FerroVault One forming intent control unit (320), a FerroVault One forming intent receiver control unit (330), a FerroVault One forming service control unit (340), and a FerroVault One forming intelligent control unit (350).

[0263] And, the above FerroVault One type app control module (300) is configured to include an edge type AI module comprising an NPU (Neural Processing Unit) core unit formed by selecting one of Transformer, CNN, or GNN inference acceleration, a GPU / ISP linked processing unit that preprocesses images through denoising, distortion correction, and feature extraction, and a hardware acceleration library unit that accelerates hardware with matrix multiplication, convolution, and attention acceleration kernels.

[0265] First, the FerroVault One formation activity control unit (310) according to the present invention will be described.

[0266] The above FerroVault One forming activity control unit (310) creates, switches, and displays each UI screen in an activity unit, which includes a genuine product verification screen for steel furniture, a dedicated channel for steel furniture designers, a status monitoring dashboard, regular maintenance and repair requests, scheduling, a promotion and collaboration section, an exhibition and rental market, and a contract and settlement, and controls the activation of sections within a single screen according to the user status of the steel furniture designer, exhibition, and inspection.

[0267] As illustrated in FIG. 19, this consists of an integrated home activity section (311), a genuine product verification activity section (312), a steel furniture designer exclusive activity section (313), a status dashboard activity section (314), a regular maintenance / repair request activity section (315), a scheduling activity section (316), an exhibition / rental market activity section (17), and a contract / settlement activity section (318).

[0269] As illustrated in FIG. 20, the integrated home activity section (311) serves as the main screen of FerroVault One, and integrates and displays the genuine product verification screen, the dedicated channel for steel furniture designers, the status monitoring dashboard, regular maintenance and repair requests, scheduling, the promotion and collaboration section, the exhibition and rental market, and the contract and settlement into a single screen section, and controls the activation, deactivation, and priority placement of each section according to the user status of steel furniture designers, exhibition, and inspection.

[0270] This consists of the authenticity verification section, the designer-exclusive channel section, the status score section, the regular maintenance and repair request section, the schedule section, the promotion and collaboration section, the exhibition and rental market section, and the contract and settlement section.

[0271] This configuration reduces the cost for users to find features, enables them to immediately perform their most important actions, and automatically reconfigures the screen based on changes in status and permissions, thereby increasing operational efficiency and conversion rates.

[0273] As shown in FIG. 21, the above genuine product verification activity unit (312) plays the role of verifying the authenticity of the tag when NFC scanning the security and sensing tag module for steel furniture, and displaying the FerroChain binding and history verification results to control the activation of the genuine product status, ownership status, transaction suspension, and dispute flags on the screen.

[0275] As shown in FIG. 22, the above-mentioned steel furniture designer exclusive activity section (313) is activated only for genuine certified steel furniture users and serves to control communication with steel furniture designers, educational content, event invitations, and Q&A.

[0277] As shown in FIG. 23, the above status dashboard activity unit (314) plays a role in visualizing the corrosion risk, humidity exposure, vibration and shock, load and deformation of the steel furniture based on the status sensing data transmitted from the security and sensing tag module for steel furniture, and controlling to display inspection recommendations and risk events.

[0279] As shown in FIG. 24, the above regular maintenance and repair request activity unit (315) performs the role of requesting inspection and repair from the user on the screen to the CareOps Engine type Ferrovolt Asset Activation Platform Intermediary Management Control Module.

[0281] The above scheduling activity unit (316) serves to control the integrated display of inspection visit schedules, exhibition installation and retrieval schedules, and designer meeting schedules on the screen, as illustrated in FIG. 25.

[0282] This consists of an integrated calendar view or a list view.

[0283] In addition, it is configured to include a confirmation button, a change button, and notification settings.

[0285] As shown in FIG. 26, the above-mentioned exhibition and rental market activity unit (317) receives exhibition and rental operation data from a CareOps Engine-type Ferrovolt asset activation platform brokerage management control module and controls the progress status of exhibition and rental, condition comparison, acceptance and rejection, installation, exhibition, and retrieval on the screen.

[0286] This consists of a proposal list regarding location, period, exhibition fee, rental fee, insurance, and transportation conditions, a condition comparison UI section that forms profit, risk, and schedule suitability, and a progress status tracking section that forms contract waiting, installation scheduled, exhibition in progress, and recovery completed.

[0288] The above contract and settlement activity unit (318), as illustrated in FIG. 27, receives contract and settlement data from the CareOps Engine type Ferrovolt asset activation platform brokerage management control module, and controls the activation of the settlement details and payment schedule information, including electronically signing the conditions of the exhibition and rental contracts and settling the exhibition fee, rental fee, commission, and costs on the screen.

[0289] This consists of a hash anchoring link section that forms a contract summary and original view, a consent and signature UI section, a settlement details UI section that forms total exhibition fees, rental fees, platform fees, transportation costs, installation costs, insurance costs, and actual payment amounts, and a payment schedule section that forms the scheduled payment date and payment status.

[0291] Through this structure, transparency in financial and contractual processes can be ensured, market confidence can be increased, and the legitimacy of the platform revenue model (fees) can be established to be 1.5 to 2 times clearer than before.

[0293] Second, the FerroVault One formation intent control unit (320) according to the present invention will be described.

[0294] The above FerroVault One formation intent control unit (320) generates action requests occurring inside or outside the app as intents and controls the transmission of function calls, such as genuine product verification execution, ticket creation, schedule change, acceptance of exhibition proposal, contract signing, and settlement inquiry, in the form of standardized actions to the FerroVault One formation activity control unit, FerroVault One formation intent receiver control unit, FerroVault One formation service control unit, and FerroVault One formation intelligent control unit.

[0295] As illustrated in FIG. 28, this consists of an ACTION_VERIFY_AUTHENTICITY section (321), an ACTION_OPEN_OWNER_CHANNEL section (322), an ACTION_CREATE_CARE_TICKET section (323), an ACTION_CONFIRM_SCHEDULE section (324), an ACTION_ACCEPT_EXHIBITION_OFFER section (325), an ACTION_SIGN_CONTRACT section (326), and an ACTION_VIEW_SETTLEMENT section (327).

[0297] The above-mentioned ACTION_VERIFY_AUTHENTICITY execution unit (321) creates an intent to an authenticity verification activity or verification service to start the authenticity verification procedure in response to an NFC scan or manual verification request, and transmits it to the authenticity verification activity unit.

[0298] This consists of input parameters for executing authenticity verification, comprising a Tag ID obtained from NFC, a challenge random number (scanNonce), a response value (challengeResponse), a tokenId selected if already known, and source=NFC or source=InApp.

[0299] In addition, it is configured to include FerroChain validation API lookups and local cache lookups.

[0301] The above-mentioned steel furniture designer open (ACTION_OPEN_OWNER_CHANNEL) section (322) performs the role of creating an intent to open the steel furniture designer exclusive channel screen after authenticating the product and verifying the authority, and transmitting it to the steel furniture designer exclusive activity section.

[0302] This consists of a TokenID, a userRole that distinguishes between the owner (steel furniture designer) and the steel furniture user, an ownerAccessToken that forms the owner authority token, and a designer channel identifier (channelId).

[0304] The above inspection and repair ticket creation (ACTION_CREATE_CARE_TICKET) unit (323) creates an intent to standardize and execute an inspection and repair request into a ticket (work order) creation process based on a sensor warning or user request, and transmits it to the regular maintenance and repair request activity unit.

[0305] This consists of TokenID, issueType forming corrosion, humidity, vibration, load, tamper, etc., warning level (severity), sensor summary (eventSummary), attachments attaching photos and videos, and location forming a location at the city, county, or district level.

[0307] The above scheduling confirmation (ACTION_CONFIRM_SCHEDULE) unit (324) creates an intent to confirm or change the technician visit schedule (inspection, repair), installation and retrieval schedule (exhibition, rental), and meeting schedule (designer channel), and transmits it to the scheduling activity unit.

[0308] This is configured by forming input parameters including ticketID or operationID, candidateSlots that form a list of candidate time slots, selectedSlot that forms a selected time, and assigneeID that forms the article and company IDs.

[0310] The above exhibition proposal acceptance (ACTION_ACCEPT_EXHIBITION_OFFER) unit (325) plays the role of controlling the acceptance of proposals received from an exhibition / rental market activated through the exhibition / rental market activity unit to convert proposal information into standard parameters into a contract.

[0311] This is composed of offerID, TokenID, venueID, period, fee, insurance, transportTerms, and a risk score calculated by the intelligent control unit forming FerroVault One.

[0312] And, it is configured to include contract creation logic (ACTION_SIGN_CONTRACT).

[0314] The above-mentioned contract agreement / signature (ACTION_SIGN_CONTRACT) section (326) performs the role of verifying the contract and agreeing / signing to the contract for exhibition, rental, and management services, creating a contract completion status, and forming a schedule and settlement.

[0315] This is formed and configured with input parameters consisting of ontractID, offerID, original hash (contractHash), termsSummary, signerID, and signToken.

[0317] The above settlement details inquiry (ACTION_VIEW_SETTLEMENT) unit (327) is responsible for generating an intent to view the settlement results calculated for exhibition fees, rental fees, commissions, and transportation / insurance costs, displaying the payment scheduled and payment completed status, and transmitting it to the contract / settlement activity unit.

[0318] This is composed of settlementID, contractID, grossFee, platformFee, costs, netPayout, payoutSchedule, and evidenceHash.

[0320] Third, the FerroVault One forming intent receiver control unit (330) according to the present invention will be described.

[0321] The above FerroVault One forming intent receiver control unit (330) receives external events such as push notifications, NFC tag detection, BLE beacon detection, Deep Link, and calendar events, and converts the event into an internal app intent to control the automatic execution of screens and functions.

[0322] As illustrated in FIG. 29, this consists of an NFC tag receiver (331), a push receiver (332), a deep link receiver (333), a schedule receiver (334), and a tamper event emergency notification receiver (335).

[0324] The NFC tag receiver unit (331) receives tag identification information when a user tags the NFC security tag of the steel furniture, generates an internal intent to automatically start the authenticity verification process, and transmits it to the FerroVault One formation service control unit.

[0325] This consists of an NFC event receiver, a Tag ID parser, a Tag UID parser, an internal intent generator, and an execution router that opens the authenticity verification activity and calls the background verification service.

[0327] The above push receiver unit (332) receives push notifications regarding inspection required, article assignment, schedule confirmation, exhibition proposal, and settlement completion transmitted to the CareOps Engine type Ferrovolt Asset Activation Platform Brokerage Management Control Module, generates an internal intent according to the type of notification, and controls the screen and function to be automatically executed.

[0328] This is configured to include a push message receiving unit, a notification type classification unit that forms ALERT_ANOMALY, TICKET_ASSIGNED, SCHEDULE_PROPOSED, OFFER_RECEIVED, SETTLEMENT_READY, and REPORT_PUBLISHED, an internal intent mapper unit that forms abnormal warnings, article assignment and scheduling, display proposals, and settlements, and a display control unit that controls moving to the corresponding activity when a notification is clicked and forming silent, urgent, and badge displays.

[0330] The deep link receiver (333) receives requests coming in through an external URL and an app link, and generates an internal intent to route the asset, proposal, contract, and settlement page pointed to by the link directly to an internal app screen.

[0331] This is configured to include a deep link scheme parser, a link validator that checks parameter integrity and expiration time, an internal intent generator for a deep link receiver consisting of offer, contract, and settlement, and an authority check trigger that switches to a restricted screen if the user is not the owner.

[0332] Through this configuration, you can achieve one-click entry from links provided by marketing, showrooms, and partners, and increase the conversion rate from exhibition proposal to contract and settlement by 1.5 to 2 times compared to the existing rate.

[0334] The above schedule receiver (334) receives calendar events for visit inspection, installation and retrieval, and designer meetings, as well as schedule notifications from the platform, and generates an internal intent to automatically execute schedule check, change, and reminder functions.

[0335] This consists of a schedule event receiving unit that forms OS calendar, alarm manager, and platform schedule notifications, a schedule identifier parser unit that forms scheduleID, ticketID, and operationID, an internal intent creation unit for a schedule receiver that confirms and confirms the schedule and opens the schedule screen, and a reminder policy unit that notifies via D-1 and D-0 and re-notifies when a schedule change request is made.

[0337] The above tamper event emergency notification receiver (334) receives a notification classified as an emergency by the security / sensing tag module for steel furniture mounting, or by the CareOps Engine type ferrovolt asset activation platform brokerage management control module, and immediately warns the user and controls the automatic execution of necessary measures regarding transaction suspension guidance, inspection request inducement, and additional authentication.

[0338] This consists of an emergency event receiving unit, a severity classification unit for CRITICAL, WARNING, and INFO, an internal intent generation unit for a tamper event emergency notification receiver that opens a dashboard, highlights warnings, and automatically suggests ACTION_CREATE_CARE_TICKET, and a protection measure trigger unit that displays a market transaction restriction UI and requires re-authentication of owner channel and settlement access.

[0340] Fourth, the FerroVault One formation service control unit (340) according to the present invention will be described.

[0341] The above FerroVault One formation service control unit (340) plays a role in controlling the execution of functions that the app must continuously perform in the background, such as verification inquiry, state synchronization, schedule update, security token update, and upload, in the form of a service.

[0342] As illustrated in FIG. 30, this consists of an Authentication Sync Service (AuthSyncService) unit (341), a CareOps Sync Service (CareOpsSyncService) unit (342), a Market Sync Service (MarketSyncService) unit (343), a Contract Settlement Sync Service (ContractSettlementSyncService) unit (344), a Security Token Service (SecurityTokenService) unit (345), and an Offline Cache Service (OfflineCacheService) unit (346).

[0344] The above-mentioned Authentication Sync Service (AuthSyncService) unit (341) is linked with the verification API unit and local cache of the FerroChain authentication layer module for steel furniture and periodically retrieves and updates the genuine product registration status, tag / product binding status, rights / transaction suspension flags, and recent history summary of the steel furniture.

[0345] This consists of a verification API call unit that calls from TagID to TokenID and retrieves the TokenID summary, a signature and proof verification unit that verifies and confirms the manufacturer and service provider DID signatures, a result cache update unit that updates the local DB and memory cache, a flag reflection unit that creates tamper, dispute, theft, and transaction suspension, and an offline fallback unit that creates a cache-based response when network is unavailable.

[0347] The above CareOpsSyncService (342) unit is linked with the CareOps Engine type Ferrovolt Asset Activation Platform Brokerage Management Control Module and plays a role in controlling to synchronize abnormal events, ticket status, technician / company assignment, visit schedule, inspection report summary, and inspection recommendations.

[0348] This consists of a ticket / work order synchronization unit that forms generated, assigned, scheduled visit, and completed statuses; a schedule synchronization unit that forms candidate times into confirmed times; a report synchronization unit that forms inspection result summaries, report hashes, and links; a status score synchronization unit that forms corrosion, humidity, vibration, load scores, and trend summaries; and an alert trigger unit that forms push notifications and local notifications when significant changes occur.

[0350] The above MarketSyncService (343) is linked with the exhibition and rental market and plays a role in synchronizing the proposal status of receiving, waiting, approval, proceeding, and ending exhibition proposals, the operation status of installation and retrieval, and market messages.

[0351] This consists of an offer list synchronization unit that forms an offer list, new, changed, and terminated; an offer detail synchronization unit that forms a period, condition, insurance and transportation, and amount; an operation status synchronization unit that forms scheduled installation, in display, and completed recovery; a recommendation and sorting parameter receiving unit that reflects the results of the FerroVault One forming intelligent control unit; and a market notification trigger unit that forms new offers and condition changes.

[0353] The above Contract Settlement Sync Service (344) serves to synchronize the contract status of awaiting signature, completion, and change regarding exhibition, rental, and management services, the calculation results of settlement of exhibition fees, rental fees, commissions, and costs, and the payment schedule.

[0354] This consists of a contract status synchronization unit composed of contractID and sign status that synchronizes the contract status, a contract original / hash verification unit that forms a contract hash anchoring link verification, a settlement calculation data synchronization unit that forms gross, fee, costs, and net, a payment schedule synchronization unit that forms the payout date and status, and a statement / evidence link management unit that forms the settlement statement hash and pointer.

[0356] The above Security Token Service (345) plays a role in renewing authentication tokens and authorization tokens and inducing re-authentication upon expiration or signs of risk in order to perform functions requiring authority regarding owner-only channels, market acceptance, contract signing, and settlement inquiry.

[0357] This consists of a token storage unit that forms the security area of ​​the Keystore and Keychain, a token renewal logic unit that reissues tokens to enable access upon Refresh, an authorization level management unit that manages authorization levels regarding Owner, Designer, General, and license duration, a risk-based re-authentication trigger unit that forms a re-authentication trigger in case of risk, and a session disposal / logout control unit that controls the disposal of sessions or logout.

[0359] The above OfflineCacheService (346) performs the role of checking for the existence of genuine products, displaying the recent status and ticket summary in a network failure environment, and storing verification summaries, recent events, and minimum authorization information in the local cache.

[0360] This consists of a cache target selection unit that generates a TokenID, MetaHash, latest version ID, flag summary, and last inspection date; a cache storage unit that stores an encrypted DB and secure storage; a TTL / expiration management unit that automatically expires old caches; a resynchronization trigger formation unit that generates a resynchronization trigger upon network recovery; and an upload queue unit that queues photos, signatures, and consent logs generated while offline.

[0362] Fifth, the intelligent control unit (350) for forming a FerroVault One according to the present invention will be described.

[0363] The above FerroVault One intelligent control unit (350) is connected to the FerroVault One activity control unit, FerroVault One intent control unit, FerroVault One intent receiver control unit, and FerroVault One service control unit, and controls the overall operation of each device. It receives genuine verification data of steel furniture, a dedicated channel link window for steel furniture users, scheduling, inspection result record data, promotion and collaboration data, exhibition and rental operation data, and contract and settlement data from the CareOps Engine type FerroVault asset activation platform brokerage management control module, activates them on the screen, learns and judges the asset status of steel furniture, intelligently determines the priority of warnings, recommended inspection timing, recommendation of exhibition and rental proposals, promotion targeting, and next action (CTA), and the screen of the smart device situation It plays a role in controlling the reconfiguration to be customized.

[0364] As illustrated in FIG. 31, this consists of a data receiving unit (351) of a Ferrovolt asset activation platform brokerage management control module type, an AI learning control unit (352), an intelligent judgment control unit (353), a condition scoring control unit (354), a priority determination control unit (355), a recommendation / matching control unit (356), a home screen dynamic configuration control unit (357), and a fraud / abnormal behavior detection unit (358).

[0366] The above-mentioned Ferrovolt Asset Activation Platform Brokerage Management Control Module type data receiving unit (351) receives genuine verification data of steel furniture, a dedicated channel link window for steel furniture users, scheduling, inspection result record data, promotion and collaboration data, exhibition and rental operation data, and contract and settlement data from the CareOps Engine type Ferrovolt Asset Activation Platform Brokerage Management Control Module, normalizes them into a standard schema, and generates an integrated status dataset for steel furniture units.

[0367] This consists of a receiving interface unit comprising REST, WebSocket, and MQTT interfaces; a data normalization unit that unifies field names, units, and time formats; a key combination unit that links based on token IDs; an incremental synchronization unit that applies Delta and reflects only changes; an integrity and trust reflection unit that forms a hash anchoring status flag based on signature verification results; and a cache and storage unit that stores data in an encrypted local DB or memory.

[0369] As shown in FIG. 32, the AI ​​learning control unit (352) accumulates interaction data between the user and the asset, learns the user's tendencies and the reaction patterns of the steel furniture asset, and controls the generation of personalized parameters to be used by the intelligent judgment control unit.

[0370] This consists of a behavioral log collection unit that collects scan frequency and time zone, dashboard view frequency, ticket creation / cancellation, proposal acceptance rate, and contract signing delay; a learning feature generation unit that forms safety, profit, and balanced propensity indicators and forms notification sensitivity with snooze and ignore patterns; a personalization model storage unit that synchronizes with a local or CareOps Engine type Ferrovolt asset activation platform brokerage management control module; and a feedback reflection unit that reflects records of the user selecting not interested, hidden, or later.

[0371] Through this configuration, by training the appropriate frequency, expression, and CTA (Call To Action) to vary for each user even for the same warning, dropout can be reduced to 40% or less compared to the existing rate, and the accuracy and acceptance rate of exhibition and rental recommendations can be improved by 80% compared to the existing rate.

[0373] As shown in FIG. 33, the intelligent judgment control unit (353) plays the role of controlling the generation of a decision output by analyzing the current asset and operational situation using the integrated dataset of the data receiving unit of the Perovalt Asset Activation Platform brokerage management control module type and the personalization parameter of the AI ​​learning control unit, and determining what to process first and what to recommend.

[0374] This consists of a state estimation unit that estimates asset states of normal, caution, warning, and urgent, and operational states of display preparation, display in progress, recovery waiting, inspection in progress, and settlement waiting; a policy engine unit that restricts market functions in the event of trading suspension and severe tampering, and restricts display acceptance when inspection is incomplete; and an AI decision generation unit that generates CTA candidates regarding inspection reservation, contract signing, and settlement confirmation through artificial intelligence (AI), and generates decision grounds using TOP-N explainable reasons.

[0375] Through this configuration, users can immediately know what action they need to take, which can improve the conversion rate by 80% compared to the existing one, and platform operation policies can be consistently applied, reducing disputes and incidents by 40% or less compared to the existing one.

[0377] As shown in FIG. 34, the above condition scoring control unit (354) plays the role of controlling the condition of steel furniture by quantifying it based on sensor summaries, inspections, and repair records, and calculating a condition score and grade that serve as the basis for asset value judgment, operation restrictions, and permission.

[0378] This consists of a feature calculation unit that calculates cumulative humidity exposure, condensation risk, impact peak / number of times, cumulative vibration amount, load deformation trend (drift), corrosion risk, recent inspection date, report score, and whether repair and reinforcement have been performed, a score calculation unit that calculates a score from 0 to 100 or from A to E, a mode weighting unit that forms weights for transportation, exhibition, and daily modes, and a reason generation unit that forms the top 3 causes for score decline.

[0380] As shown in FIG. 35, the above priority determination control unit (355) combines warning events, schedules, contracts, and settlement closings to determine and control the priority (Top-N) of sections, notifications, and CTAs to be displayed to the user.

[0381] This consists of a priority rule table section that forms a ranking of Tamper CRITICAL, Load Deformation Warning, Exhibition Installation Imminent (D-1), Contract Signing Deadline, Long-term Exposure to High Humidity, and General Promotion; a deadline calculation section that calculates the deadline with Deadline and D-day; a duplication suppression section that suppresses duplication with Snooze and Cooldown; and a CTA confirmation section that selects and confirms one of Now Inspection Reservation, Contract Signing, and Settlement Confirmation.

[0382] Through this configuration, confusion caused by information overload can be reduced, the speed of emergency response can be improved, and disputes and costs arising from omissions in schedules and contracts can be reduced to 40% or less compared to existing levels.

[0384] As shown in FIG. 36, the recommendation and matching control unit (356) plays the role of controlling exhibition and rental proposals, promotions and collaborations, and designer content to be recommended and matched according to asset status and user preferences.

[0385] This consists of a filtering unit that eliminates substandard condition grades, unsuitable exhibition environments, and schedule conflicts; a suitability calculation unit that weightedly sums revenue (exhibition fee / rental fee), risks (transportation, humidity, damage), and brand suitability; a targeting unit that recommends collaborations based on owner grade, interests, and participation history; and a recommendation reason generation unit that explains three reasons for recommendation.

[0387] The above home screen dynamic configuration control unit (357) controls the activation and locking of sections of the integrated home screen, alignment, highlighting with color or vibration, and placing an immediate execution button (CTA) on the screen, reflecting priority, recommendation, and policy results as illustrated in FIG. 37.

[0388] This consists of a layout policy section that forms an upper emergency area, a suspension status area, and a lower profit area; a section activation / locking control section that forms owner, non-owner, trading suspension, and maintenance; a UI update trigger section that requests a re-render from the FerroVault One formation activity control section; and a quick action creation section that creates maintenance reservation, signature, and settlement confirmation with a single click.

[0390] The above fraud / abnormal behavior detection unit (358), as illustrated in FIG. 38, detects acts that impair genuine product authentication and transaction reliability, and performs additional authentication requests, function restrictions, and warning displays depending on the level of risk.

[0391] Here, acts that undermine transaction reliability refer to mass scanning, repeated tampering, abnormal access, and signature attempts.

[0392] This consists of an anomaly pattern detection unit that detects multiple tag scans in a short period of time, sudden geographical changes in logins of the same account, repeated tamper events, attempts to lift trading suspensions, and repeated failures to access contracts and settlements; a risk score calculation unit that calculates a risk score; a response policy unit that transmits audit logs and risk events to re-login, additional authentication of two-factor authentication, market acceptance, settlement screen locking, and the CareOps Engine-type FerroVault Asset Activation Platform brokerage management control module; and a user guidance unit that generates security warnings and action guides.

[0394] Thus, by configuring the FerroVault One intelligent control unit—consisting of a brokerage management control module-type data receiver, AI learning control unit, intelligent judgment control unit, condition scoring control unit, priority determination control unit, recommendation and matching control unit, home screen dynamic configuration control unit, and fraud and abnormal behavior detection unit—the system dynamically determines the status of currently operational assets. While existing product authentication typically ends at static authentication limited to distinguishing between genuine and counterfeit goods and checking history, this system can guarantee the trading and operational feasibility of steel furniture assets. Furthermore, by designing the user's next actions based on operational status (CTA orchestration), inspection reservation rates, contract completion rates, settlement confirmation rates, and display acceptance rates can be improved by 80% compared to existing methods. Additionally, as warnings, inspections, logging, score updates, and the reflection of operational and trading policies form an automatic loop, standardized preventive maintenance, similar to water purifier care, can be implemented in the steel furniture market, transforming steel furniture from a mere asset of ownership into an operational asset that generates cash flow. It can raise awareness and increase the market participation rate for exhibition and rental by 1.5 to 2 times compared to the existing rate, and can continuously reinforce genuine product authentication and transaction trust through fraud and abnormal behavior detection units.

[0396] As explained above, by configuring a FerroVault One type app control module consisting of a FerroVault One activity control unit, a FerroVault One intent control unit, an FerroVault One intent receiver control unit, a FerroVault One service control unit, and a FerroVault One intelligent control unit, whereas in the past, users had to decide for themselves what to do as a simple function-distributed information app, the FerroVault One intelligent control unit displays only Top-N CTAs (immediate action buttons) at the top of the home screen and automatically determines CTAs based on status, permissions, schedules, and conditions. This allows the user behavior conversion rate (CTA execution rate) to increase by 1.5 to 2 times compared to the existing rate, and steel furniture does not depreciate in value over time, By managing it, the lifespan of steel furniture can be extended, and it can be re-recognized as an asset that maintains value. Furthermore, through recommendations and filtering based on condition, environment, schedule, and risk, the success rate of exhibition and rental markets can be improved by 2 to 3 times compared to the existing method. It can also connect the entire process from contract to settlement into a single flow, and through a context-customized home screen and the automatic locking and reduction of unnecessary sections, the engagement rate of steel furniture users can be increased by 1.5 to 3 times compared to the existing method, and the time spent on the app can be increased by 80% compared to the existing method.

[0398] Next, a CareOps Engine-type Ferrovolt Asset Platform Brokerage Management Control Module (400) according to the present invention will be described.

[0399] The above CareOps Engine-type FerroVault Asset Platform Brokerage Management Control Module (400) is connected to a security / sensing tag module for steel furniture, a FerroChain authentication layer module for steel furniture, and a FerroVault One-type app control module, and receives detection of abnormalities in steel furniture located at the site, generates tickets, assigns technicians / companies, automatically generates scheduling, records inspection results, and activates exhibition / rental as an operation UI on the screen, settles exhibition fees, rental fees, and platform commissions, and then transmits the genuine product verification data of the steel furniture, a dedicated channel link window for steel furniture users, scheduling, inspection result record data, promotion and collaboration data, exhibition and rental operation data, and contract and settlement data to the FerroVault One-type app control module to form a platform that activates steel furniture as an asset, thereby performing the role of brokerage management control.

[0400] As illustrated in FIGS. 39 and 40, this consists of an event collection and normalization control unit (410), an AI anomaly detection and risk assessment control unit (420), a ticket and work order generation control unit (430), an article and company matching and assignment control unit (440), an automatic scheduling generation unit (450), an inspection execution and report generation control unit (460), a blockchain anchoring linkage control unit (470), an exhibition and rental operation control unit (480), a contract and settlement control unit (490), and an app transmission and screen activation data generation control unit (490a).

[0402] First, the event collection and normalization control unit (410) according to the present invention will be described.

[0403] The above event collection and normalization control unit (410) is connected to a security and sensing tag module for steel furniture and a FerroChain authentication layer module for steel furniture, and plays a role in collecting events such as detection of abnormalities in steel furniture located at the site, ticket generation, assignment of technicians and companies, automatic generation of scheduling, recording of inspection results, and exhibition and rental operations, and controlling them to normalize them into a standard event schema.

[0404] As illustrated in FIG. 41, this consists of an event receiving interface unit (411) that receives events and is composed of BLE, Wi-Fi, LTE gateway, and API, a schema conversion unit that formats by sensor and forms standard fields, a time synchronization and order correction unit (412) that delays and processes retransmission, a duplicate remover (413) that removes repeated transmission of the same event, a signature and integrity verification unit (414) that verifies the authenticity of tag events, and a standard event storage queue unit (415) that stores message queues and logs.

[0405] Through this configuration, it is possible to expand without changing the operational logic even when various sensors and tags are added, and misjudgments caused by event errors, omissions, or duplication can be reduced.

[0407] Second, the AI ​​anomaly detection and risk level calculation control unit (420) according to the present invention will be described.

[0408] The above AI anomaly detection and risk assessment control unit (420) determines whether there is an anomaly and the risk level based on normalized events, and controls the determination of priorities regarding subsequent measures for tickets, assignments, schedules, and transaction restrictions.

[0409] As illustrated in FIG. 42, this consists of a threshold rule engine unit (421) that forms thresholds for humidity upper limit, impact g value, and load deformation amount, an AI accumulation and trend analysis unit (422) that forms high humidity duration, vibration accumulation amount, and deformation drift through artificial intelligence (AI), a context reflection unit (423) that reflects context by dividing it into transport mode, display mode, and daily mode, a risk score calculation unit (424) that calculates risk scores as Risk 0~100, grade Normal, Caution, Warning, and Critical, and a false positive filtering unit (425) that filters sensor noise and temporary events.

[0411] Third, the ticket / work order generation control unit (430) according to the present invention will be described.

[0412] The above ticket / work order generation control unit (430) plays the role of controlling the generation of tickets by converting abnormal events or user requests into work orders, which are units capable of on-site work.

[0413] As illustrated in FIG. 43, this consists of a ticket type template unit (431) that forms corrosion, high humidity, impact, load, tamper, etc., an escalation rule control unit (432) that forms priorities based on risk, value, and exhibition schedule, an automatic proof attachment control unit (433) that automatically attaches proof regarding the last 7 days summary and event log, a work checklist generation unit (434) that generates a work checklist regarding inspection items, necessary tools, and parts, and a ticket status machine unit (435) that forms ticket status in the order of generation, assignment, schedule, work, and completion.

[0414] Through this configuration, variations in technician proficiency can be reduced to standardize inspection quality, and a structure capable of processing regardless of the user's report quality can be established.

[0416] Fourth, the article / company matching / assignment control unit (440) according to the present invention will be explained.

[0417] The above article / company matching / assignment control unit (440) plays the role of automatically selecting and assigning the optimal article or company to process the ticket.

[0418] As illustrated in FIG. 44, this consists of a company / technician DB section (441) that databases companies and technicians regarding region, expertise, qualifications, ratings, and equipment, an availability calendar section (442) that reflects reservation and travel time, a matching engine section (443) that optimizes and matches distance, cost, response time, and expertise, an acceptance / reassignment logic section (444) that automatically retryes upon rejection, and an SLA management section (445) that manages response and visit target times.

[0419] In other words, when a ticket is entered, candidate articles and companies are extracted.

[0420] Next, calculate the matching score and request a first-priority assignment.

[0421] Next, if acceptance fails, it is automatically reassigned.

[0423] Fifth, the scheduling automatic generation unit (450) according to the present invention will be described.

[0424] The above scheduling automatic generation unit (450) plays a role in automatically generating visit, installation, and retrieval schedules by reflecting the owner schedule, exhibition schedule, and article schedule, and controlling the formation of a proposal message.

[0425] As illustrated in FIG. 45, this consists of a schedule candidate generation unit (451) that generates available time slots, a collision inspection control unit (452) that inspects collisions based on exhibition installation, retrieval, and owner unavailability times, a periodic inspection cycle calculation control unit (453) that calculates a periodic inspection cycle based on condition and environment, and a confirmed workflow formation control unit (454) that forms a confirmed workflow in the order of proposal, owner confirmation, and technician confirmation.

[0426] Through this configuration, no-shows and delays can be reduced, operations stabilized, and regular visit maintenance for water purifier-care type steel furniture can be implemented.

[0428] Sixth, the inspection execution and report generation control unit (460) according to the present invention will be described.

[0429] The inspection execution and report generation control unit (460) above plays the role of controlling the generation of the results of on-site inspection and repair execution into a standard report to be generated as an asset history.

[0430] As illustrated in FIG. 46, this consists of a standard checklist section (461) for checking the coating, welding, fastening, leveling, corrosion, and deformation of steel furniture, a photo and video upload and organization section (462) for uploading and organizing photos and videos, a replacement parts and work time record section (463) for recording replacement parts and work time, an inspection score control section (464) for scoring inspections and generating recommendations for the next action, and a report document generation section (465) for generating report documents as PDF or electronic documents.

[0431] Through this configuration, the management history serves as the basis for value, increasing the reliability of used and display items and enabling long-term tracking of changes in the condition of the same asset.

[0433] Seventh, the blockchain anchoring interlocking control unit (470) according to the present invention will be described.

[0434] The above-mentioned blockchain anchoring linkage control unit (470) plays the role of linkage control to store the inspection report, the contract, and the original photo off-chain, and to record the hash of the hash on the FerroChain for steel furniture.

[0435] As illustrated in FIG. 47, this consists of a SHA-based hash generation unit (471), an off-chain storage unit (472) that stores data in conjunction with IPFS (InterPlanetary File System) and the cloud, a chain event trigger, a retry queue unit (473) that retryes data in case of network failure, and an authority / privacy policy unit (474) that controls access to photos and contracts.

[0436] In other words, after generating the original report, the hash is calculated.

[0437] Next, upload the original repository and create a pointer.

[0438] Next, the hash is anchored to the FerroChain for steel furniture, and the transaction is recorded.

[0439] Through this configuration, large-scale on-chain storage can be prevented, costs reduced by less than 60% compared to existing methods, integrity can be ensured, and the reliability of evidence in the event of a dispute can be improved by 80% compared to existing methods.

[0441] Eighth, the exhibition and rental operation control unit (480) according to the present invention will be described.

[0442] The above-mentioned exhibition and rental operation control unit (480) receives an exhibition and rental request from a FerroVault One type app control module and performs the role of reviewing conditions regarding exhibition and rental, and generating exhibition and rental operation data for transportation, installation, retrieval, and monitoring.

[0443] As illustrated in FIG. 48, this comprises an exhibition / rental request receiving unit (481) that receives exhibition / rental requests from a FerroVault One type app control module, an operation workflow control unit (482) that forms an operation workflow for installation work orders and retrieval work orders, an exhibition mode policy unit (483) that changes sensor thresholds and notification policies, a risk assessment forming unit (484) that reflects condition scores, tampering and accident history, an operation status tracking unit (485) that tracks operation statuses of progress, delay, and completion, and an exhibition / rental operation data generation unit (486) that generates exhibition and rental operation data for reviewing conditions, transportation, installation, retrieval, and monitoring regarding exhibition / rental.

[0445] Ninth, the contract and settlement control unit (490) according to the present invention will be described.

[0446] The above contract and settlement control unit (490) creates a contract for exhibition, rental, and management services, calculates exhibition fees, rental fees, commissions, and costs, manages the settlement and payment schedule, and generates contract and settlement data.

[0447] As illustrated in FIG. 49, this consists of a contract generation unit (491) that forms a standard contract template and condition variables, an electronic consent and signature linkage control unit (492) that links electronic consent and signature, a settlement control unit (493) that controls the calculation and settlement of exhibition fees, rental fees, platform fees, transportation costs, installation costs, insurance premiums, and actual payment amounts, a payment scheduler formation unit (494) that forms a scheduler in the payment scheduled and completed states, and a contract and settlement data generation unit (495) that generates contract and settlement data.

[0448] Through this configuration, the flow of money becomes transparent, increasing transaction trust and stabilizing the platform's revenue model.

[0450] Tenth, the app transmission / screen activation data generation control unit (490a) according to the present invention will be described.

[0451] The above app transmission / screen activation data generation control unit (490a) plays the role of controlling the generation and transmission of genuine product verification data, a dedicated channel link window for steel furniture users, scheduling, inspection result record data, promotion and collaboration data, exhibition and rental operation data, and contract and settlement data as UI packets so that one-screen integrated activation is possible in a FerroVault One type app control module.

[0452] As illustrated in FIG. 50, this comprises an authenticity verification result packet section (490a-1) that forms a packet regarding authenticity verification results with authenticity, flag, and summary history; a steel furniture user channel link and session token packet section (490a-2) that forms a packet regarding steel furniture user channel links and session tokens; a ticket and scheduling status packet section (490a-3) that forms a packet regarding ticket and schedule status regarding assignment, confirmation, and scheduled visit; an inspection result record data packet section (490a-4) that forms a packet regarding inspection result record cards, hashes, and links; a promotion and collaboration data packet section (490a-5) that forms promotion and collaboration content packets by target segment; an exhibition and rental operation data packet section (490a-6) that receives exhibition and rental operation data generated by the exhibition and rental operation control section and forms an exhibition and rental operation data packet; and a contract and settlement data packet that receives contract and settlement data generated by the contract and settlement control section. It is composed of a contract and settlement data packet unit (490a-7) that forms a contract and settlement data packet unit, and a data transmission unit (490a-8) that is connected to a FerroVault One type app control module and transmits genuine product verification data, a dedicated channel link window for steel furniture users, scheduling, inspection result record data, promotion and collaboration data, exhibition and rental operation data, and contract and settlement data so that one-screen integration activation is possible on the FerroVault One type app control module.

[0454] With this configuration, screens can be configured immediately without complex calculations, increasing UX speed by 1.5 to 2 times compared to the existing method, and stable operation is possible even with differences in app and server versions through data standardization.

[0456] Thus, by configuring a CareOps Engine-type Ferrovolt Asset Activation Platform Brokerage Management Control Module according to the present invention, comprising an event collection and normalization control unit, an AI anomaly detection and risk assessment control unit, a ticket and work order generation control unit, an engineer and vendor matching and assignment control unit, an automatic scheduling generation unit, an inspection execution and report generation control unit, a blockchain anchoring linkage control unit, an exhibition and rental operation control unit, a contract and settlement control unit, and an app transmission and screen activation data generation control unit, a closed-loop Asset Care is formed where asset management is completed, rather than a simple notification system as in the past. Consequently, when an anomaly occurs, measures are automatically executed, the results remain as proof, and this proof is notarized in a state where it cannot be forged or tampered with, thereby improving asset value and transaction reliability by 80% compared to the existing system. Furthermore, by overturning the existing prejudice that luxury furniture is difficult to manage and enabling regular visit maintenance services—similar to water purifier care—to operate using a standard protocol, the luxury steel furniture market can be transformed into an expandable service industry, thereby [allowing] consumers Interest in steel furniture users can be increased by 1.5 to 2 times compared to the existing system. Furthermore, since exhibition and rental are transformed from transactions involving posts on intermediary platforms into operational service packages (Operations-as-a-Product), market trust and success rates can be increased by 2 to 3 times compared to the existing system. Additionally, through the app transmission and screen activation data generation control unit, verification, scheduling, reports, markets, and settlements can be integrated and transmitted as UI packets, allowing the integrated status to be displayed immediately on a single screen without complex calculations. Changes in the operational status are quickly reflected in the UI, enabling the user action (CTA) conversion point to be induced and formed 1.5 to 2 times faster than the existing system.

[0458] Hereinafter, a method for controlling the formation of a blockchain-based AI Ferrovolt asset activation platform for authenticating and managing genuine steel furniture according to the present invention will be described in detail.

[0460] FIG. 52 is a flowchart illustrating a method for controlling the formation of a blockchain-based AI ferrovolt asset activation platform for authenticating and managing genuine steel furniture according to the present invention.

[0462] First, as illustrated in FIG. 51, a unique ID consisting of a security tag and manufacturer / designer metadata is formed on the steel furniture through a security / sensing tag module for steel furniture, the duplication, removal, and reattachment of the tag are detected, and the corrosion, humidity, vibration, and load of the steel furniture are sensed to generate state sensing data, and the generated binding record data, tampering event data, and state sensing data are transmitted to a FerroChain authentication layer module for steel furniture and a CareOps Engine type FerroVault asset brokerage management control module (S10).

[0463] That is, as illustrated in FIG. 53, power is applied to the entire module through the power supply unit (S11).

[0464] Next, when scanned by a FerroVault One type app control module through the NFC security tag part, the tag is authenticated using a challenge-response method to prove that it is genuine and to prevent tag duplication (S12).

[0465] Next, through the metadata binding unit, metadata regarding manufacturing, designer, production time, and material characteristics is hashed to form binding record data consisting of a unique ID component combined with the tag ID of the NFC security tag unit, and the formed binding record data is transmitted to the security and sensing tag control unit (S13).

[0466] Next, through the tamper detection unit, traces of when the tag module body is removed from the metal furniture, or when the housing is opened or reattached are sensed, a tamper event is generated, and this is transmitted to the security / sensing tag control unit (S14).

[0467] Next, through the multi-sensor unit for steel furniture, corrosion, humidity, vibration, and load of the steel furniture are sensed to generate state sensing data (S15).

[0468] Next, through the communication unit, binding record data, tampering event data, and state sensing data are transmitted to the FerroChain authentication layer module for steel furniture and the CareOps Engine type ferrovolt asset brokerage management control module (S16).

[0470] Next, as illustrated in FIG. 51, the FerroChain authentication layer module for steel furniture performs the role of an authentication layer that stores, verifies, and tracks the genuine product registration, tag / product binding, ownership transfer, exhibition / rental history, maintenance / repair history, and photos of the user using the steel furniture as signatures and blockchain records (S20).

[0471] That is, as illustrated in FIG. 54, through the smart contract for genuine product registration of steel furniture, the manufacturer and the designer generate a genuine product registration event based on the unique ID information of the steel furniture, generate a TokenID representing the steel furniture, and register it as a genuine asset (S21).

[0472] Next, through the smart contract section for tag / product binding, the TagID transmitted from the security / sensing tag module for steel furniture and the TokenID generated from the smart contract section for steel furniture genuine product registration are combined to permanently record on the chain that this tag is the genuine tag of this steel furniture (S22).

[0473] Next, through a smart contract section for managing ownership and rights, the transfer of ownership or usage rights regarding the sale, transfer, inheritance, and rental of steel furniture is managed, and the exercise of rights is restricted in special cases of dispute, theft, and seizure (S23).

[0474] Next, major events regarding exhibition, rental, management, repair, and accident are recorded as history through the smart contract section for event history, and are formed to be traceable on the chain (S24).

[0475] Next, in the smart contract section for the steel furniture usage photo, through a FerroVault One type app control module, the hash, time of shooting, authorization information, and signature of the steel furniture usage photo taken by the steel furniture user are recorded on the chain, and proof of existence is provided that the steel furniture usage photo existed at a specific point in time (S25).

[0476] Next, through the hash anchoring control unit, the original report, contract, photo, and proof are stored off-chain, and the hash of the original is anchored to the chain to prevent tampering with the original (S26).

[0477] Next, through the verification API section, the CareOps Engine-type Ferrovolt Asset Activation Platform brokerage management control module indexes chain events to query and verify chain data, and forms the tag scan-based verification result as a standard response (S27).

[0478] Next, through the tracking control unit, the ownership, exhibition, management, repair, and photographic evidence of the steel furniture from production to the present are linked to generate a tracking graph that can be tracked and visualized in chronological order, by type, and by value impact (S28).

[0480] Next, as illustrated in FIG. 51, an abnormality detection of steel furniture located at the site is received through a CareOps Engine-type Ferrovolt asset platform brokerage management control module, ticket generation, technician / company assignment, automatic scheduling generation, inspection result recording, and exhibition / rental are activated as an operation UI on the screen, and exhibition fees, rental fees, and platform commissions are settled (S30).

[0481] That is, as illustrated in FIG. 55, the event collection and normalization control unit is connected to a security and sensing tag module for steel furniture and a FerroChain authentication layer module for steel furniture, and controls the collection of events such as abnormal detection of steel furniture located at the site, ticket generation, assignment of technicians and companies, automatic generation of scheduling, recording of inspection results, and exhibition and rental operations, and normalization into a standard event schema (S31).

[0482] Next, through the AI ​​anomaly detection and risk assessment control unit, the presence of anomalies and the level of risk are determined based on normalized events, and control is made to determine the priority of subsequent measures regarding tickets, assignments, schedules, and transaction restrictions (S32).

[0483] Next, the ticket / work order generation control unit controls the generation of tickets by converting abnormal events or user requests into work orders, which are units capable of on-site work (S33).

[0484] Next, the optimal driver or company to process the ticket is automatically selected and assigned through the driver / company matching and assignment control unit (S34).

[0485] Next, through the automatic scheduling generation unit, the visit, installation, and retrieval schedules are automatically generated by reflecting the owner schedule, the exhibition schedule, and the technician schedule, and the suggestion message is formed (S35).

[0486] Next, the inspection execution and report generation control unit controls the generation of the results of the field inspection and repair as a standard report to be created as an asset history (S36).

[0487] Next, through the blockchain anchoring linkage control unit, the inspection report, the contract, and the original photo are stored off-chain, and the hash is linked to be recorded on the FerroChain for steel furniture (S37).

[0488] Next, through the exhibition and rental operation control unit, an exhibition and rental request is received from a FerroVault One type app control module, and exhibition and rental operation data regarding the review of conditions for exhibition and rental, transportation, installation, retrieval, and monitoring is generated (S38).

[0489] Next, through the contract and settlement control unit, a contract for exhibition, rental, and management services is created, and the exhibition fee, rental fee, commission, and costs are calculated to manage the settlement and payment schedule, and contract and settlement data are created (S39).

[0491] Next, as illustrated in FIG. 51, the authenticity verification data of the steel furniture, the dedicated channel link window for steel furniture users, scheduling, inspection result record data, promotion and collaboration data, exhibition and rental operation data, and contract and settlement data are transmitted to the FerroVault One type app control module through the CareOps Engine type FerroVault Asset Platform brokerage management control module to form a platform that activates the steel furniture as an asset (S40).

[0493] Finally, as illustrated in FIG. 51, a user interface (UI), authority, and transaction control are implemented through a FerroVault One type app control module to integrate and activate the genuine product verification screen of steel furniture, a dedicated channel for steel furniture designers, a status monitoring dashboard, regular maintenance and repair requests, scheduling, a promotion and collaboration section, an exhibition and rental market, and contracts and settlements on a single screen (S50).

[0494] That is, as illustrated in FIG. 56, through the FerroVault One forming activity control unit, each UI screen comprising the genuine product verification screen of steel furniture, the dedicated channel for steel furniture designers, the status monitoring dashboard, the regular maintenance and repair request, the scheduling, the promotion and collaboration section, the exhibition and rental market, and the contract and settlement is created, switched, and displayed on an activity unit basis, and controls the activation of sections within a single screen according to the user status of the steel furniture designer, exhibition, and inspection (S51).

[0495] Next, through the FerroVault One formation intent control unit, action requests occurring inside or outside the app are generated as intents, and function calls such as executing product verification, creating tickets, changing schedules, accepting exhibition proposals, signing contracts, and checking settlements are controlled to be transmitted to the FerroVault One formation activity control unit, FerroVault One formation intent receiver control unit, FerroVault One formation service control unit, and FerroVault One formation intelligent control unit in the form of standardized actions (S52).

[0496] Next, external events such as push notifications, NFC tag detection, BLE beacon detection, Deep Link, and calendar events are received through the FerroVault One forming intent receiver control unit, and the corresponding events are converted into internal app intents to control the automatic execution of screens and functions (S53).

[0497] Next, through the FerroVault One formation service control unit, the app controls the execution of functions that must be continuously performed in the background, such as verification inquiry, state synchronization, schedule update, security token update, and upload, as services (S54). Explanation of the symbols

[0499] 1 : Blockchain-based AI Ferrovolt Asset Activation Platform Formation Control Device for Authenticity Verification and Brokerage Management of Steel Furniture 100: Security and sensing tag module for mounting on steel furniture 110 : Tag module main body 120 : NFC security tag section 130 : Metadata binding section 140 : Counterfeit detection unit 150 : Multi-sensor unit for steel furniture 160 : Security / Sensing Tag Control Unit 170 : Communications Department 180: Power supply 200: FerroChain Certified Layer Module for Steel Furniture 210 : Smart Contract Section for Genuine Steel Furniture Registration 220 : Smart contract section for tag / product binding 230 : Smart contract section for ownership and rights management 240 : Smart contract section for event history 250 : Smart contract section for steel furniture usage photos 260 : Hash Anchoring Control Unit 270 : Verification API Section 280 : Tracking control unit 300: FerroVault One type app control module 310: FerroVault One Formation Activity Control Unit 320: FerroVault One Formation Intent Control Unit 330: FerroVault One forming intent receiver control unit 340: FerroVault One Formation Service Control Unit 350: FerroVault One Formation Intelligent Control Unit 400: CareOps Engine-type Ferrovolt Asset Platform Brokerage Management Control Module

Claims

Claim 1 It consists of a blockchain-based AI Ferrovolt Asset Activation Platform Formation Control Device for authenticating and brokering steel furniture, which mediates and controls the process to form a platform that activates steel furniture assets by assigning a unique ID consisting of a security tag and manufacturer / designer metadata to steel furniture, recording its history on a blockchain, monitoring its status using sensors embedded in the steel furniture, and connecting it to regular on-site maintenance, repairs, exhibition monetization, and exclusive experiences for steel furniture designers; wherein the aforementioned blockchain-based AI Ferrovolt Asset Activation Platform Formation Control Device for authenticating and brokering steel furniture is formed by being stored on one side of the steel furniture, forms a unique ID consisting of a security tag and manufacturer / designer metadata on the steel furniture, detects the duplication, removal, and reattachment of the tag, senses corrosion, humidity, vibration, and load of the steel furniture to generate state sensing data, and uses the generated binding record data, forgery event data, and state sensing data for the steel furniture A security and sensing tag module for steel furniture that transmits to the FerroChain authentication layer module and the CareOps Engine-type FerroVault asset brokerage management control module; a FerroChain authentication layer module for steel furniture that performs the role of an authentication layer by connecting to the security and sensing tag module for steel furniture and the CareOps Engine-type FerroVault asset brokerage management control module to store, verify, and track genuine product registration, tag and product binding, ownership transfer, exhibition and rental history, maintenance and repair history, and user photos of steel furniture usage as signatures and blockchain records; and a system that is activated as an application on the smart device screen of the user of the steel furniture to provide a genuine product verification screen, a dedicated channel for steel furniture designers, a status monitoring dashboard, regular maintenance and repair requests, scheduling, promotion and collaboration sections, an exhibition and rental market, and contracts and settlements as a single entity. User interface (UI) that enables integration on the screen, permissions,A CareOps Engine-type FerroVault that controls and manages intermediation to form a platform for activating steel furniture assets, comprising a FerroVault One-type app control module that controls transactions, a security and sensing tag module for steel furniture, a FerroChain authentication layer module for steel furniture, and a FerroVault One-type app control module that is connected to the FerroVault One-type app control module to receive detection of abnormalities in steel furniture located on-site, generate tickets, assign technicians and companies, automatically generate schedules, record inspection results, activate exhibition and rental functions via an on-screen operational UI, settle exhibition fees, rental fees, and platform commissions, and then transmit authenticity verification data, a link to a dedicated channel for steel furniture users, scheduling and inspection result records, promotion and collaboration data, exhibition and rental operation data, and contract and settlement data to the FerroVault One-type app control module. In a blockchain-based steel furniture authenticity authentication and brokerage management type AI FerroVault asset activation platform formation control device composed of an asset platform brokerage management control module, the FerroVault One type app control module comprises: a FerroVault One formation activity control unit that creates, switches, and displays each UI screen constituting a steel furniture authenticity verification screen, a steel furniture designer exclusive channel, a status monitoring dashboard, regular maintenance and repair requests, scheduling, a promotion and collaboration section, an exhibition and rental market, and contracts and settlements on an activity unit basis, and controls the activation of sections within a single screen according to the user status of a steel furniture designer, during exhibition, and during inspection; and a FerroVault One formation activity control unit that generates action requests occurring inside or outside the app as intents, and calls functions such as executing authenticity verification, creating tickets, changing schedules, accepting exhibition proposals, signing contracts, and checking settlements in the form of standardized actions.FerroVault One forming Intent Rescuer Control Unit, FerroVault One forming Service Control Unit, FerroVault One forming Intent Control Unit that controls transmission to the FerroVault One forming Intelligent Control Unit; FerroVault One forming Intent Rescuer Control Unit that receives external events such as push notifications, NFC tag detection, BLE beacon detection, Deep Link, and calendar events, converts the corresponding events into internal app intents, and controls the automatic execution of screens and functions; FerroVault One forming Service Control Unit that controls the execution of functions that the app must continuously perform in the background, such as verification lookup, state synchronization, schedule update, security token update, and upload, as services; FerroVault One forming Activity Control Unit, FerroVault One forming Intent Control Unit, FerroVault A blockchain-based iron furniture authenticity authentication and brokerage management type AI FerroVault Asset Activation Platform forming control device characterized by comprising a FerroVault One forming intelligent control unit that is connected to a FerroVault One forming intent receiver control unit and a FerroVault One forming service control unit, controls the overall operation of each device, receives authenticity verification data for iron furniture, a channel link window dedicated to iron furniture users, scheduling, inspection result record data, promotion and collaboration data, exhibition and rental operation data, and contract and settlement data from a CareOps Engine type FerroVault Asset Activation Platform brokerage management control module, activates them on the screen, learns and judges the asset status of iron furniture, intelligently determines warning priority, recommended inspection timing, exhibition / rental proposal recommendation, promotion targeting, and next action (CTA), and controls the smart device screen to be reconfigured in a context-customized manner. Claim 2 delete Claim 3 delete Claim 4 delete Claim 5 delete Claim 6 delete Claim 7 In claim 1, the FerroVault One forming intelligent control unit comprises: a FerroVault Asset Activation Platform brokerage management control module type data receiving unit that receives genuine verification data of steel furniture, a dedicated channel link window for steel furniture users, scheduling, inspection result record data, promotion and collaboration data, exhibition and rental operation data, and contract and settlement data from a CareOps Engine type FerroVault Asset Activation Platform brokerage management control module, normalizes them into a standard schema, and generates an integrated state dataset at the steel furniture unit level; an AI learning control unit that accumulates interaction data between users and assets to learn user tendencies and response patterns of steel furniture assets, and controls the generation of personalized parameters to be used by the intelligent judgment control unit; and a decision result (Decision) regarding what to process first and what to recommend, which analyzes the current asset and operational status using the integrated dataset of the FerroVault Asset Activation Platform brokerage management control module type data receiving unit and the personalized parameters of the AI ​​learning control unit. An intelligent judgment control unit that controls the generation of Output; a condition scoring control unit that controls the calculation of condition scores and grades serving as the basis for asset value judgment, operational restrictions, and permission by quantifying the condition of steel furniture based on sensor summaries, inspections, and repair records; a priority determination control unit that controls the determination of the priority (Top-N) of sections, notifications, and CTAs to be displayed to the user by integrating warning events, schedules, contracts, and settlement deadlines; a recommendation and matching control unit that controls the recommendation and matching of exhibition / rental proposals, promotions and collaborations, and designer content according to asset status and user preferences; a home screen dynamic configuration control unit that controls the activation, locking, alignment, highlighting of integrated home screen sections with color or vibration, and placement of immediate action buttons (CTAs) on the screen by reflecting priorities, recommendations, and policy results; and a unit that detects actions that undermine genuine product authentication and transaction reliability, and requires additional authentication based on risk level.A blockchain-based steel furniture authenticity authentication and brokerage management type AI ferrovolt asset activation platform formation control device characterized by being composed of a fraud / abnormal behavior detection unit that performs function restriction and warning indication. Claim 8 In claim 1, the CareOps Engine-type FerroVault Asset Platform Brokerage Management Control Module is connected to a security / sensing tag module for steel furniture and a FerroChain authentication layer module for steel furniture, and comprises: an event collection / normalization control unit that controls the collection of events regarding anomaly detection, ticket generation, technician / company assignment, automatic scheduling generation, inspection result recording, and exhibition / rental operations of steel furniture located on-site, and normalization into a standard event schema; an AI anomaly detection / risk assessment control unit that controls the determination of anomalies and risk levels based on normalized events, and the determination of priorities regarding follow-up measures for tickets, assignments, schedules, and transaction restrictions; a ticket / work order generation control unit that controls the generation of tickets by converting anomaly events or user requests into work orders, which are units capable of on-site work; a technician / company matching / assignment control unit that controls the automatic selection and assignment of the optimal technician or company to process tickets; and owner schedules, exhibition schedules, and technician schedules A scheduling automatic generation unit that controls the automatic generation of visit, installation, and retrieval schedules and the formation of proposal messages by reflecting them; an inspection execution and report generation control unit that controls the generation of on-site inspection and repair results into standard reports and asset history; a blockchain anchoring linkage control unit that controls the linkage to store original inspection reports, contracts, and photos off-chain and record their hashes on a FerroChain for steel furniture; an exhibition and rental operation control unit that receives exhibition and rental requests from a FerroVault One type app control module, reviews conditions regarding exhibition and rental, and generates exhibition and rental operation data regarding transportation, installation, retrieval, and monitoring; and a contract and settlement control unit that generates contract and settlement data while creating contracts for exhibition, rental, and management services, calculating exhibition fees, rental fees, commissions, and costs, and managing settlement and payment schedules.A blockchain-based steel furniture authenticity authentication and brokerage management type AI FerroVault asset activation platform formation control device characterized by comprising an app transmission and screen activation data generation control unit that controls the generation and transmission of authenticity verification data, a channel link window dedicated to steel furniture users, scheduling, inspection result record data, promotion and collaboration data, exhibition and rental operation data, and contract and settlement data as UI packets to enable one-screen integrated activation in a FerroVault One type app control module. Claim 9 In claim 8, the contract and settlement control unit comprises a contract generation unit that forms a standard contract template and condition variables, an electronic consent and signature linkage control unit that links electronic consent and signatures, a settlement control unit that controls the calculation and settlement of exhibition fees, rental fees, platform fees, transportation costs, installation costs, insurance premiums, and actual payment amounts, a payment scheduler formation unit that forms a scheduler for scheduled and completed payment states, and a contract and settlement data generation unit that generates contract and settlement data, characterized in that it is a blockchain-based steel furniture genuine product authentication and brokerage management type AI ferrovolt asset activation platform formation control device. Claim 10 In claim 8, the above-mentioned app transmission / screen activation data generation control unit comprises: an authenticity verification result packet unit that forms a packet regarding authenticity verification results with authenticity, flag, and summary history; a steel furniture user channel link / session token packet unit that forms a packet regarding steel furniture user channel links and session tokens; a ticket / scheduling status packet unit that forms a packet regarding ticket and schedule status regarding assignment, confirmation, and scheduled visit; an inspection result record data packet unit that forms a packet regarding inspection result record cards, hashes, and links; a promotion / collaboration data packet unit that forms promotion and collaboration content packets by target segment; an exhibition / rental operation data packet unit that receives exhibition and rental operation data generated by the exhibition / rental operation control unit and forms an exhibition and rental operation data packet; a contract / settlement data packet unit that receives contract and settlement data generated by the contract / settlement control unit and forms a contract and settlement data packet; and is connected to a FerroVault One type app control module, and in the FerroVault One type app control module A blockchain-based steel furniture authenticity authentication and brokerage management type AI ferrovolt asset activation platform formation control device characterized by being composed of a data transmission unit that transmits authenticity verification data, a channel link window dedicated to steel furniture users, scheduling, inspection result record data, promotion and collaboration data, exhibition and rental operation data, and contract and settlement data to enable one-screen integrated activation. Claim 11 A step (S10) of forming a unique ID consisting of a security tag and manufacturer / designer metadata on the steel furniture through a security / sensing tag module mounted on the steel furniture, detecting the duplication, removal, and reattachment of the tag, and generating state sensing data by sensing the corrosion, humidity, vibration, and load of the steel furniture, and transmitting the generated binding record data, forgery event data, and state sensing data to a FerroChain authentication layer module for steel furniture and a CareOps Engine-type FerroVault asset brokerage management control module; a step (S20) of performing the role of an authentication layer through the FerroChain authentication layer module for steel furniture to store, verify, and track the genuine product registration, tag / product binding, ownership transfer, exhibition / rental history, maintenance / repair history, and user photos of the steel furniture usage as signatures and blockchain records, and CareOps A step (S30) of receiving detection of anomalies in steel furniture located at the site through the CareOps Engine-type FerroVault Asset Platform brokerage management control module, generating tickets, assigning technicians / companies, automatically generating schedules, recording inspection results, activating exhibitions / rentals as an operation UI on the screen, and settling exhibition fees, rental fees, and platform commissions; a step (S40) of brokerage management control to form a platform that activates steel furniture as an asset by transmitting authenticity verification data of steel furniture, a link window for a channel dedicated to steel furniture users, scheduling, inspection result recording data, promotion and collaboration data, exhibition and rental operation data, and contract and settlement data to the FerroVault One-type app control module through the CareOps Engine-type FerroVault Asset Platform brokerage management control module; and a step of the steel furniture's Authenticity verification screen, dedicated channel for steel furniture designers, status monitoring dashboard, regular maintenance and repair requests, scheduling, promotion and collaboration section, exhibition and rental market, andIn a method for controlling the formation of a blockchain-based genuine steel furniture authentication and brokerage management type AI FerroVault asset activation platform, comprising a step (S50) of controlling a user interface (UI), authority, and transactions that integrates and activates contracts and settlements on a single screen, the above step (S30) comprises: a step (S31) of controlling, through an event collection and normalization control unit, to connect with a security and sensing tag module for steel furniture mounting and a FerroChain authentication layer module for steel furniture to collect events regarding anomaly detection of steel furniture located on-site, ticket generation, assignment of technicians / company, automatic scheduling generation, inspection result recording, and exhibition / rental operation, and to normalize them into a standard event schema; a step (S32) of controlling, through an AI anomaly detection and risk assessment control unit, to determine the presence of anomalies and risk levels based on the normalized events and to determine priorities regarding follow-up measures for tickets, assignments, schedules, and transaction restrictions; and a step (S32) of controlling, through a ticket / work order generation control unit, to enable on-site work for anomaly events or user requests. A step (S33) of controlling the generation of tickets by converting them into work orders as units; a step (S34) of controlling the automatic selection and assignment of the optimal technician or company to process the tickets through a technician / company matching / assignment control unit; a step (S35) of controlling the automatic generation of scheduling to automatically generate visit, installation, and retrieval schedules and form proposal messages by reflecting the owner's schedule, exhibition schedule, and technician schedule through a scheduling automatic generation unit; a step (S36) of controlling the generation of on-site inspection and repair results into standard reports and asset history through an inspection execution / report generation control unit; a step (S37) of controlling the linkage so that the original inspection report, contract, and photos are stored off-chain and their hashes are recorded on a FerroChain for steel furniture through a blockchain anchoring linkage control unit; and an exhibition / rental operation control unit so that the exhibition / rental from the FerroVault One type app control module Upon receiving the request, reviewing the conditions regarding exhibition and rental, transportation, installation, and retrieval, andA blockchain-based steel furniture authenticity authentication and brokerage management type AI ferrovolt asset activation platform formation control method characterized by including a step (S38) of generating monitoring exhibition and rental operation data, and a step (S39) of generating contract and settlement data while generating a contract for exhibition, rental, and management services through a contract and settlement control unit, calculating exhibition fees, rental fees, commissions, and costs, and managing settlement and payment schedules. Claim 12 delete Claim 13 delete Claim 14 delete Claim 15 In claim 11, the above step (S50) is a step (S51) of creating, switching, and displaying, on an activity unit, each UI screen constituting the genuine product verification screen of steel furniture, the steel furniture designer exclusive channel, the status monitoring dashboard, the regular maintenance and repair request, the scheduling, the promotion and collaboration section, the exhibition and rental market, and the contract and settlement, and controlling to activate sections within a single screen according to the user status of the steel furniture designer, exhibition in progress, and inspection in progress, and a step of creating action requests occurring inside or outside the app as intents through the FerroVault One forming intent control unit, and calling functions such as genuine product verification execution, ticket creation, schedule change, exhibition proposal acceptance, contract signing, and settlement inquiry in the form of standardized actions, FerroVault One forming activity control unit, FerroVault One forming intent receiver control unit, A blockchain-based iron furniture authenticity authentication and brokerage management type AI FerroVault asset activation platform formation control method characterized by comprising: a step (S52) of controlling to transmit to a FerroVault One formation service control unit and a FerroVault One formation intelligent control unit; a step (S53) of receiving external events such as push notifications, NFC tag detection, BLE beacon detection, Deep Link, and calendar events through a FerroVault One formation intent receiver control unit, converting the said events into internal app intents to control to automatically execute screens and functions; and a step (S54) of controlling to execute functions that the app must continuously perform in the background, such as verification inquiry, state synchronization, schedule update, security token update, and upload, in the form of services through a FerroVault One formation service control unit.

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