KR102236235B1 - The disaster broadcasting PA in public facility, the remotely functioning A/V smart broadcasting device, a closed network system - Google Patents

Abstract

When a civil defense alarm terminal which can be remotely controlled by the Korea Air and Space Operations Center (KAOC) or a multi-use facility control server receives emergency broadcast broadcasting data (disaster alert, disaster risk, air strike, CTRN, text to speech (TTS) data) for inside/outside public buildings such as schools, public institutions, or the like including the Article 33 (3) of the Framework Act on Civil Defense, and the Article 55-2 of the Enforcement Decree of the same Act (propagation of civil defense alerts) of buildings subject to alarm propagation, emergency broadcast is made through a multi-use facility alert terminal.

Description

The disaster broadcasting PA in public facility, the remotely functioning A/V smart broadcasting device, a closed network system}

IPC classification G06F16/70 It is related to the processing of streaming data including video.

It is a remote-controlled civil defense alarm (siren) and disaster/disaster broadcasting system with enhanced security of PA broadcasting devices and AV broadcasting devices installed in schools, government offices, and public multi-use facilities.

Security is required for Public Adderss BROADCASTING (Public Adderss BROADCASTING) and A/V (Audio/Video) broadcasting devices that can be collaborated with remote control in public buildings in government offices and public buildings in multi-use facilities through smartphones. It is an enhanced broadcasting system.

It is related to the construction of a closed wireless self-communication network using a Wi-Fi access point (AP) using an unlicensed frequency.

The present invention differentiates Public Adderss BROADCASTING, which enables civil defense disaster/disaster broadcasting to schools, public offices, public buildings and public buildings of multi-use facilities through a smartphone in charge or a multi-use facility control server of a local government alarm control station. It is done.

Also, based on security enhancement, remote A/S (After-Sales Service) for A/V (Audio/Video) broadcasting devices in multi-use facilities such as concert halls where collaboration by remote control is possible, or small conference rooms and small theaters. sales Service) and real-time collaboration (Collaboration) is possible.

Microprocessors are TTL and CMOS ICs that only move according to their specific characteristics, whereas microprocessors allow administrators to inject a program into the processor to implement their desired operating characteristics. They can issue commands like a computer's CPU and receive specific commands. The microprocessor for the entire control program and operation that can be performed is also called as the motherboard (MOTHERBOARD) or the main board (MAINBOARD).

A server is a computer or software that provides a service to another computer on a network. The computer or software on the side that uses the functions provided by the server is called a client. For example, a web server stores web page (home page) information and, upon request, sends the data to the user's computer. A client software for displaying information sent from a web server is a web browser. In addition to the Internet, there are various types of servers such as mail server (e-mail), DNS server (domain name), FTP server (for file transfer), communication server, and video server that transmits images taken with a web camera on the network. Numerous connections are made to each other to provide services, and between them, through the user authentication procedure, the connection is connected/disconnected through the network network log in/out (Log IN/OUT).

The cryptographic key used in the symmetric cryptographic algorithm is called a'symmetric key', and the fact that the symmetric key uses one key that is the same for encryption and decryption is already common in the technical field to which this invention belongs. It is a technical fact that is well-known to those with knowledge (hereinafter referred to as'common technicians').

In addition, the asymmetric cryptographic algorithm has a key pair called a'private key' and a'public key' mathematically corresponding to this private key, and encryption is performed with a public key, The fact that decryption is performed with the corresponding private key is a technical fact that is well known to those skilled in the art.

In addition, RSA encryption is representative of the above equation, and various methods such as a hash function (fixed-length hash function), and an operator (beta-OR (EX-OR)) are known.

In the present invention, the key generation between the private key and the public key key pair of an asymmetric cryptographic algorithm is RSA, hash function <(HASH(DATA1)+(TRN))∥DATA2 Various well-known methods such as >, functional expressions, and operators are applied. (The'+' operator sign means a beta-OR (EX-OR) operator sign.)

For example,

In the hash function <(HASH(DATA1)+(TRN)))∥DATA2>, HASH(DATA1) creates a private key in which DATA1 is formatted as a fixed-length hash function, and then betas the natural random number (TRN) as a random number seed. It is a one-way hash function that encrypts DATA2 after generating a public key by performing an appropriate OR (EX-OR) operation.

The one-way hash function is a one-way transfer function, and after Alice passes the hash function <(HASH(DATA1)+(TRN))> to Bob, Bob encrypts DATA2 and hash function <(HASH(DATA1)+(TRN)) If ∥DATA2> is retransmitted to Alice, if Alice knows the private key hash function <HASH(DATA1)> and the one-time OTP natural random number TRN, it is a hash function that can decrypt DATA2.

The project is an on-premises broadcasting system that enables civil defense alerts and disaster/disaster broadcasts for multi-use facilities that are linked with smartphones or cloud servers.

Communication costs are minimized by establishing a closed wireless self-network of local governments using unlicensed frequencies.

It is an on-premises broadcasting system that enables disaster and disaster broadcasts for multi-use facilities using a civil defense alarm terminal (siren).

Direct-fired emergency broadcasting is possible through an emergency broadcasting terminal connected to a closed radio network of local governments using unlicensed frequencies.

It minimizes the occurrence of communication charges through a hybrid network consisting of an ISP network and a closed wireless private network.

Disaster and disaster broadcasts issued by alarm control centers and broadcasting stations, fire alarms for fire receivers, and TTS (Text To Speech) broadcasts generated by the person in charge's smartphone are broadcast through physical TLS (Transport Layer Security) security.

It features effective direct fire broadcasting through wired/wireless speakers under the control of an AI direct fire short-circuit prediction controller.

Security is reinforced through hybrid security Wi-Fi access points (APs) that use unlicensed frequencies.

1 to 6 is a simplified diagram of an embodiment of the present invention

In buildings with 1 basement level to 5 floors above ground, if a fire occurs on the 3rd floor, emergency fire broadcasting should be given priority to the 3rd and 4th floors and then emergency fire broadcasting on the 5th floor in sequence, but speaker wires are provided on the 4th floor. Even if emergency fire broadcasting is not possible due to short circuit or disconnection, emergency fire broadcasting is sequentially performed on the 5th floor after the fire progresses in the fire zone on the 4th floor.

In addition, even in the above circumstances, it is necessary to enable internal battery startup wireless broadcasting through wired/wireless dual speakers capable of emergency broadcasting or emergency broadcasting through constant-powered speakers, and countermeasures against bypass power communication lines that receive power and data through power communication lines. Etc. should be studied.

In addition, Article 5 (Wiring) 1 of the Fire Safety Standards for Emergency Broadcasting Facilities of the Fire and Disaster Prevention Administration "Even if a loudspeaker or wiring on one floor is shorted or disconnected due to a fire, it should not interfere with the fire notification of the other floor."

The present invention constructs a redundant safety system through wired/wireless dual speakers in which fire alarms or disaster disaster broadcasts are broadcast to the ignition layer and the ignition layer directly above it without a problem.

It will be described in detail through an embodiment.

(Component)

1. The smart broadcasting device is a broadcasting device comprising AI direct fire short-circuit prediction controller, QUANTUM TLS (Transport Layer Security), multi-communication interface, information protection module, monitor speaker, terminal control server, PA broadcasting device, and AV broadcasting device. to be.

2. The QUANTUM KEY authentication server is composed of a quantum random number generator (QRNG) and a pseudo random number generator (PRNG) to generate a terminal private key (PRIVATE KEY).

3. The QUANTUM TLS (Transport Layer Security) is composed of a quantum random number generator (QRNG) and a pseudo random number generator (PRNG), and the same terminal private key generated by the QUANTUM KEY authentication server ( PRIVATE KEY) and additional terminal OTP public key (PUBLIC KEY).

4. The administrator's smartphone connects to the network network through the terminal control server and user authorization login (Log IN) through QUANTUM KEY authentication, and then broadcasts TTS (Text To Speech) remotely through the terminal control server.

5. The remote collaboration server is logged in for user authentication through QUANTUM KEY authentication between the terminal control server and the remote collaboration server, and remote collaboration is performed by remotely controlling the terminal control server with the remote collaboration server.

6. The multi-use facility control server receives emergency broadcast broadcasting data and performs emergency broadcasting through the multi-use facility alarm terminal connected to the network.

7. Wired speakers are speakers that are connected to a wired network network such as a fire protection cable (HIV) or AV cable to a public adders broadcasting device (PA broadcasting device) or A/V (Audio/Video) broadcasting device for sound broadcasting.

8. Emergency broadcasting terminal is an emergency broadcasting terminal with wired/wireless network network and power supply measures applied to enable emergency broadcasting even in the event of a failure situation such as fire, power failure, or line abnormality.

9. OTP NFC is composed of Pseudo Random Number Generator (PRNG).

10. The QUANTUM KEY authentication server, QUANTUM TLS (Transport Layer Security), OTP NFC, and collaboration server are configured to include the same Pseudo Random Number Generator (PRNG) to seed a random number that generates the same pseudo-random number. ) To generate the same private key (PRIVATE KEY) through the same key generation program.

11. In addition, it is composed of a pair of'QUANTUM KEY authentication server and QUANTUM TLS (Transport Layer Security)' of the same pseudo-random number generator (PRNG; Pseudo Random Number Generator),

It is composed of a pair of'QUANTUM Transport Layer Security (TLS) and OTP NFC' of the same Pseudo Random Number Generator (PRNG),

'QUANTUM TLS (Transport Layer Security) and Collaboration Server' consists of a pair of identical pseudo random number generators (PRNGs), and three pairs of pseudo random number generators (PRNGs) composed of a pair. It is possible to implement 3 different pairs of TWIN PRNGs.

(Detailed description of components)

The multi-use facility control server is a municipal and provincial civil defense alarm terminal capable of remote broadcasting (remote control) from the Korea Air and space Operations Center (KAOC), or Article 33, Paragraph 3 of the Framework Act on Civil Defense, Article 55 of the Enforcement Decree of the same Act. Article 2 (Civil Defense Alert Propagation) Emergency broadcast broadcasting data (disaster alert, disaster risk, air raid, chemical room, TTS (Text To Speech)) for public buildings such as schools and government offices, including "buildings subject to warning propagation" ) When receiving data, etc.), it broadcasts (emergency broadcasting) emergency broadcasting data through the multi-use facility alarm terminal and the QUANTUM KEY authentication through the QUANTUM KEY authentication server.

The QUANTUM KEY authentication server includes the same pseudo random number generator (PRNG) as the QUANTUM TLS (Transport Layer Security).

A terminal private key (PRIVATE KEY) is generated through a key generation program using a pseudo-random number (PRN1) generated through the pseudo-random number generator (PRNG) as a random number seed.

The server (program) cannot arbitrarily generate a key, and it must first need a source seed. The Pseudo Random Number Generator (PRNG), which generates random numbers by a random number generation program, has been applied so far, but it is super With the advent of computers and quantum computers, regularity was predicted and appeared as a threat to hacking.

In the present invention, not only a quantum random number generator (QRNG) that solves the above problem is used, but a classic known asymmetric key cryptographic algorithm through a pair of the same pseudo random number generator (PRNG). It features QKD (Quantum Key Distribution) technology that is differentiated from (asymmetric cryptographic algorithm).

The QUANTUM KEY authentication server is a smart broadcasting device through one or more communication networks among self-network, national disaster network, DMB, MMS, Internet, UHD TV, satellite, radio, PSTN, PS-LTE, LoRA, NB-IoT, and SigFox. Sends QUANTUM KEY authentication server ID Address to communication interface.

The multi-communication interface inside the smart broadcasting device is in the communication between the smart broadcasting device, the multi-use facility alarm terminal and the multi-use facility control server. , PS-LTE, LoRA, NB-IoT, SigFox, including a multi-modem including any one or more communication networks, including a multi-communication interface that enables communication through various communication network networks in the event of a disaster. do.

In addition, the multi-communication interface may be included in the multi-use facility alarm terminal to transmit received data to the terminal control server inside the smart broadcasting device.

The QUANTUM TLS (Transport Layer Security) inside the smart broadcasting device receives the ID address, checks the ID address of the QUANTUM KEY authentication server, and seeds the pseudo-random number (PRN1) generated through the same pseudo-random number generator (PRNG) as the QUANTUM KEY authentication server. With (Seed), the terminal private key (PRIVATE KEY) generated by the QUANTUM KEY authentication server through the same key generation program (e.g. fixed-length hash function) as the internal key generation program (e.g. fixed-length hash function) and the QUANTUM KEY authentication server Generate the same pair of terminal private keys (PRIVATE KEY).

The key generation program is not limited to the claims in the present invention by using various known key generation programs such as a fixed-length hash function and a format function.

Keys generated using the same key generation program with the same random number seed are generated with the same pair of private keys (PRIVATE KEY).

Pseudo-random number (PRN1) generated through the same pseudo-random number generator (PRNG) is a pseudo-random number generator or GPS (global position system) that stores random number data that occurs sequentially, such as once, twice, or three times. It is a known technology that generates the same random number based on time data or generates a PRIVATE KEY according to a known key generation program using GPS (global position system) time data and stored random number data. It is not limited to.

QUANTUM Transport Layer Security (TLS) uses a quantum random number (QRN1) that generates a random unpredictable quantum random number (QRN1) through a quantum random number generator (QRNG) as a seed, as the terminal private key (PRIVATE). KEY) is a key generation program (e.g. beta OR (EX-OR), beta logical product (EX-AND), SHIFT, RSA, Diffie-Helmman, SHA256, HMAC, ARIA, etc.). It is possible.) After generating the terminal OTP public key (PUBLIC KEY), the terminal OTP public key (PUBLIC KEY) is transmitted to the MAC address of the QUANTUM KEY authentication server through one or more communication methods through the multi-communication interface.

The QUANTUM KEY authentication server transmits the terminal OTP public key (PUBLIC KEY) to the multi-use facility control server.

The multi-use facility control server encrypts emergency broadcast broadcasting data (disaster alert, disaster risk, air raid, chemical room, TTS (Text To Speech) data, etc.) with the terminal OTP public key (PUBLIC KEY) and uses the QUANTUM TLS ( Transport Layer Security).

QUANTUM Transport Layer Security (TLS) uses the terminal's private key (PRIVATE KEY) for emergency broadcasting broadcast data (disaster boundary, disaster risk, air raid, chemistry room, TTS (Text To Speech) data) encrypted with the terminal OTP public key (PUBLIC KEY). And transmits to the terminal control server.

The terminal control server transmits emergency broadcasting broadcasting data (disaster alert, disaster risk, air raid, chemical room, TTS (Text To Speech) data) to the multi-use facility alarm terminal.

The multi-use facility alarm terminal transmits emergency broadcast broadcast data (disaster boundary, disaster risk, air raid, chemistry room, TTS (Text To Speech) data) through a PA broadcasting device or AV broadcasting device through any one or more of sound, voice, or video. Express.

When the sequential mode selection button is turned on, the terminal control server transfers emergency broadcast broadcasting data (disaster alert, disaster risk, air raid, chemistry room, TTS (Text To Speech) data) to the inner floor of the building sequentially (from the first floor to the top floor). Broadcasting is conducted to temporarily prevent panic caused by crowds of people at the entrance.

When the sequential mode selection button is turned off, the terminal control server broadcasts emergency broadcasting data (disaster alert, disaster risk, air raid, chemical room, TTS (Text To Speech) data) to all floors of the building at once.

When the terminal control server receives emergency broadcasting broadcasting data (disaster alert, disaster risk, air raid, hwasaengbang, TTS (Text To Speech) data) when the emergency broadcasting manager mode selection button is ON, the administrator's smartphone receives emergency broadcasting data. It transmits an alarm and broadcasts after approving the final broadcast through the manager's smartphone.

QUANTUM TLS (Transport Layer Security) is composed of the same pseudo random number generator (PRNG) as OTP NFC, and seeded the pseudo random number (PRN2) that generated the same pseudo random number (PRN2) as the NFC OTP. ) To generate the administrator's private key (PRIVATE KEY) through the key generation program.

QUANTUM Transport Layer Security (TLS) is a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG) to generate a key for the manager's private key (PRIVATE KEY). The administrator OTP PUBLIC KEY is created by encrypting it through a program (e.g., beta OR (EX-OR), etc.).

Data encrypted with OTP public key (PUBLIC KEY) can be decrypted if you know the quantum random number (QRN) key, generating program (beta logical sum (EX-OR)) and private key (PRIVATE KEY).

The terminal control server transmits the administrator OTP public key (PUBLIC KEY) to the administrator smartphone.

The manager smartphone includes an NFC chip and a dedicated security app (APP) is uploaded. When the physical OTP NFC (sticker, card, etc.) is tagged on the manager smartphone NFC chip, the OTP NFC is QUANTUM TLS (Transport Layer Security) generates the same pseudo-random number (PRN2) generated by QUANTUM TLS (Transport Layer Security) through the same pseudo-random number generator (PRNG) and transmits it to the manager's smartphone.

The manager smartphone generates an OTP manager authentication key that encrypts the pseudo-random number (PRN2) with the manager OTP PUBLIC KEY received from QUANTUM TLS (Transport Layer Security) and transmits it to QUANTUM Transport Layer Security (TLS). .

QUANTUM TLS (Transport Layer Security) decrypts the OTP administrator authentication key with the administrator's private key (PRIVATE KEY), and the same pseudo-random number as the NFC OTP generated through the same pseudo random number generator (PRNG) as the OTP NFC. In the case of PRN2), a user authentication login (Log IN) between the terminal control server and the manager's smartphone is performed to access the terminal control server with the manager's smartphone to approve the emergency broadcast broadcast data broadcast before broadcasting.

When the terminal control server receives a fire event for each floor from the fire reception team, the AI direct fire short-circuit prediction controller provides a sequential emergency broadcast of direct fire as stipulated by the Fire Service Act based on the fire level. In order to prevent accidents caused by panic, sequential broadcasting is conducted based on the floor where the fire occurred.

The terminal control server conducts a ping test to check for short circuit breaks on the broadcasting cable line according to the administrator input value such as daily, weekly, monthly through the AI direct fire short-circuit prediction controller. It is characterized in that the presence/absence result report is transmitted to the manager's smartphone.

The AI direct fire short-circuit prediction controller includes an AI mode selection ON/OFF button, and when the AI mode selection button is in the OFF state, it sequentially broadcasts the direct fire fire emergency broadcasts determined by the Fire Service Act.

When the emergency broadcasting data is broadcast when the AI mode selection button of the AI direct fire short-circuit prediction controller is OFF, the emergency broadcasting terminal transmits the sound data received through the monitor microphone installed inside to the information protection module inside the smart broadcasting device. It is characterized in that it is possible to check whether or not the broadcast is normally broadcast.

In accordance with the Personal Information Protection Act, the information protection module controls the sound data received from the microphone only when the emergency broadcast broadcast data is transmitted through the emergency broadcast terminal so that the sound data collected from the microphone cannot be broadcast through the monitor speaker at all times. Send it to the server.

The terminal control server is characterized in that it broadcasts the received sound data to a monitor speaker only when the emergency broadcast broadcast data is transmitted through the emergency broadcast terminal.

The AI direct fire short-circuit prediction controller includes an AI mode selection ON/OFF button, and when the AI mode selection button is ON, the direct fire sequential emergency broadcasts when the broadcasting cable is short-circuited, and automatically connects to the next floor where a fire occurs It features an emergency broadcast.

The terminal control server inside the smart broadcasting device transmits emergency broadcasting broadcasting data to a wired speaker connected through a wired network (broadcast cable) and broadcasts it.

When it is not possible to broadcast emergency broadcast broadcast data through wired speakers and emergency broadcast terminals through a wired network, the smart broadcasting device's internal terminal control server uses a license-free frequency radio through an unlicensed frequency radio repeater installed in the EPS room on each floor of the multi-use facility. It is characterized by broadcasting emergency broadcasting broadcasting data through an emergency broadcasting terminal connected through a network network (Yi-Fi, BL, LPWAN, etc.).

The emergency broadcasting terminal is installed inside/outside the building and consists of a wired terminal block, wireless receiver, amplification unit, speaker unit, monitor microphone, AC supply unit, storage battery, super capacitor, driving unit, power control unit, and main control unit.

The wired terminal block is a terminal block to which the fire protection cable that transmits emergency broadcasting data is connected.

The radio receiver receives the radio frequency modulated by emergency broadcast data, and the amplification unit amplifies the radio frequency modulated by emergency broadcast data, converts it into sound through a speaker, and broadcasts it.

The AC supply unit always receives AC power (AC 220V) and supplies driving power to the driving unit.

The storage battery receives power from the AC supply unit, charges electric charges, and supplies driving power to the driving unit.

If it is impossible to supply constant power (AC 220V) to the drive unit through the AC supply due to power failure, fire, or breakdown, unlike a storage battery, a charged supercondenser is capable of one-time emergency broadcasting by using the characteristic that natural discharge does not occur. It is a super capacitor that supplies power to the drive.

The storage battery has a problem of having to regularly check the state of charge and the life of the storage battery due to natural discharge, but the superconde has a permanent advantage without natural discharge.

The driving unit is a driving unit that receives driving power from an AC supply unit, a storage battery, or a super capacitor and supplies driving power to the wireless receiver, amplifying unit, speaker unit, power control unit, monitor microphone, and main control unit.

The main control unit composed of a microprocessor controls the wireless receiver, amplification unit, speaker unit, AC supply unit, super capacitor, driving unit, monitor microphone, and power control unit.

The main control unit controls the power control unit to always receive AC power (commercial power, AC 220V) and supplies driving power to the AC supply unit through the storage battery, but the driving power is supplied to the AC supply unit due to deterioration of the performance of the storage battery, power failure, or fire. When the supply becomes impossible, the power control unit is controlled and the driving power is supplied through the super capacitor. (Transfer, SSR, TRIAC, relay, etc. are applied.)

The driving unit is characterized in that only when emergency broadcasting broadcasting data is received, supply driving power to the monitor microphone to generate sound data through the monitor microphone and transmit it to the information protection module inside the smart broadcasting device.

When the manager smartphone connects to the terminal control server,

QUANTUM TLS (Transport Layer Security) is composed of the same pseudo random number generator (PRNG) as OTP NFC, and seeded the pseudo random number (PRN2) that generated the same pseudo random number (PRN2) as the NFC OTP. ) To generate the administrator's private key (PRIVATE KEY) through the key generation program.

QUANTUM Transport Layer Security (TLS) is a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG) to generate a key for the manager's private key (PRIVATE KEY). The administrator OTP PUBLIC KEY is created by encrypting it through a program (e.g., beta OR (EX-OR), etc.).

Data encrypted with OTP public key (PUBLIC KEY) can be decrypted if you know the quantum random number (QRN) key, generating program (beta logical sum (EX-OR)) and private key (PRIVATE KEY).

The terminal control server transmits the administrator OTP public key (PUBLIC KEY) to the administrator smartphone.

The manager smartphone includes an NFC chip and a dedicated security app (APP) is uploaded. When the physical OTP NFC (sticker, card, etc.) is tagged on the manager smartphone NFC chip, the OTP NFC is QUANTUM TLS (Transport Layer Security) generates the same pseudo-random number (PRN2) generated by QUANTUM TLS (Transport Layer Security) through the same pseudo-random number generator (PRNG) and transmits it to the manager's smartphone.

The manager smartphone generates an OTP manager authentication key that encrypts the pseudo-random number (PRN2) with the manager OTP PUBLIC KEY received from QUANTUM TLS (Transport Layer Security) and transmits it to QUANTUM Transport Layer Security (TLS). .

QUANTUM TLS (Transport Layer Security) decrypts the OTP administrator authentication key with the administrator's private key (PRIVATE KEY), and the same pseudo-random number as the NFC OTP generated through the same pseudo random number generator (PRNG) as the OTP NFC. In the case of PRN2), user authentication is logged in between the terminal control server and the administrator's smartphone, and the terminal control server is remotely controlled with the administrator's smartphone.

In other words, if the TTS broadcast text generated by the smartphone is encrypted with the OTP public key and transmitted to the terminal control server, it is decrypted with the administrator's private key (PRIVATE KEY), and the TTS broadcast is performed through the wired speaker and emergency broadcasting terminal.

When the remote collaboration server connects to the terminal control server,

QUANTUM TLS (Transport Layer Security) is composed of the same Pseudo Random Number Generator (PRNG) as the remote collaboration server, and seed the pseudo random number (PRN3) that generates the same pseudo random number as the remote collaboration server. It generates a collaboration private key (PRIVATE KEY) through a key generation program.

QUANTUM Transport Layer Security (TLS) is a quantum random number that generates unpredictable quantum random numbers through a quantum random number generator (QRNG). EX-OR)) to generate a collaboration OTP public key (PUBLIC KEY).

The terminal control server transmits the collaboration OTP PUBLIC KEY to the remote collaboration server.

The remote collaboration server generates the same pseudo-random number (PRN3) through the same pseudo random number generator (PRNG) as the QUANTUM TLS (Transport Layer Security), and the cooperative OTP public key received from the QUANTUM Transport Layer Security (TLS). An OTP collaboration authentication key that encrypts the pseudorandom number (PRN3) with (PUBLIC KEY) is generated and transmitted to QUANTUM Transport Layer Security (TLS).

QUANTUM TLS (Transport Layer Security) decrypts the OTP collaboration authentication key with the collaboration private key (PRIVATE KEY), and the same pseudo random number (PRN3) generated through the same pseudo random number generator (PRNG) as the remote collaboration server. In one case, a user authentication login (Log IN) between the terminal control server and the remote collaboration server is used to remotely control the terminal control server with the remote collaboration server, and to share and cooperate with the monitor in real time.

(Coupling relationship of components)

The QUANTUM KEY authentication server, QUANTUM TLS, OTP NFC, and collaboration server are configured with the same pseudo-random number generator (PRNG), and the pseudo-random number (PRN) generated through the pseudo-random number generator (PRNG) is keyed as a seed. Generate the same private key (PRIVATE KEY) through the generation program.

When the emergency broadcast broadcasting data is received by the multi-use facility control server,

When the QUANTUM KEY authentication server transmits the QUANTUM KEY authentication server ID address to QUANTUM TLS through a multi-communication interface, the QUANTUM TLS receives the ID address, checks the QUANTUM KEY authentication server ID address, and generates it through a quantum random number generator (QRNG). The terminal OTP public key is generated by encrypting the PRIVATE KEY using a quantum random number (QRN) as a seed, and the terminal OTP public key as a QUANTUM KEY authentication server through a multi-communication interface. To transmit.

The multi-use facility control server receives the terminal OTP PUBLIC KEY from the QUANTUM KEY authentication server, encrypts the emergency broadcast broadcast data with the terminal OTP public key, and uses the QUANTUM TLS (Transport Layer Security) through a multi-communication interface. ) To retransmit.

QUANTUM TLS decrypts the emergency broadcast broadcast data encrypted with the terminal OTP PUBLIC KEY with a PRIVATE KEY and transmits it to the terminal control server, and the terminal control server transmits the emergency broadcast broadcast data to the multi-use facility alarm terminal. It transmits and broadcasts emergency broadcast broadcast data through a PA broadcast device and an AV broadcast device.

When the sequential mode selection button is ON, the terminal control server broadcasts emergency broadcasting data sequentially to the inner floors of the building, and when the sequential mode selection button is OFF, it broadcasts the emergency broadcasting data to all floors of the building at once. .

When the emergency broadcast manager mode selection button is ON, the terminal control server transmits an emergency broadcast data reception alarm to the manager smartphone when receiving emergency broadcast broadcast data, and broadcasts after approving the final broadcast through the manager smartphone.

Normally, the terminal control server performs a line ping test through the AI direct fire short-circuit prediction controller and transmits the ping test result report to the manager's smartphone.

In the event of a fire, the terminal control server receives the fire event from the fire receiver and conducts a sequential emergency broadcast of the direct fire through the AI direct fire short-circuit prediction controller,

The internal terminal control server of the smart broadcasting system broadcasts emergency broadcasting data through a wired speaker connected through a wired network network and an emergency broadcasting terminal, but even if broadcasting through a wired network network is not possible due to short circuits (wires), the EPS room on each floor of a multi-use facility It features a redundant wired/wireless network network capable of broadcasting emergency broadcasting broadcasting data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency radio repeater installed in the.

When the AI mode selection button of the AI direct fire short-circuit prediction controller is ON, if a short-circuit (line) layer occurs during the sequential emergency broadcast of direct fire due to a fire, an emergency broadcast automatically linked to the next floor.

When the emergency broadcast terminal receives and broadcasts emergency broadcast broadcast data while the AI mode selection button of the AI direct firing short-circuit prediction controller is OFF, the terminal control server transmits the broadcast sound data received through the monitor microphone inside the smart broadcast device. Personal information is protected by broadcasting through a monitor speaker so that it is impossible to receive sound through the monitor microphone in normal times.

When the emergency broadcasting terminal is unable to supply constant power from the KEPCO side, it receives driving power from either a super capacitor or a storage battery and performs emergency broadcasting through the emergency broadcasting terminal.

When the manager smartphone connects to the terminal control server,

The private key (PRIVATE KEY) is encrypted with the quantum random number (QRN) generated by the quantum random number generator (QRNG) as a seed, and the administrator OTP public key (PUBLIC KEY) is generated and transmitted to the administrator's smartphone.

When OTP NFC is tagged on the manager's smartphone, the same pseudo-random number (PRN) is generated through the same pseudo-random number generator (PRNG) and transmitted to the manager's smartphone, and the manager's smartphone uses the manager's OTP public key (PUBLIC KEY). Generates an OTP administrator authentication key that encrypts a random number (PRN) and transmits it through QUANTUM TLS.

QUANTUM TLS decrypts the OTP administrator authentication key with the administrator's private key (PRIVATE KEY), and in the case of the same pseudo-random number (PRN) as the NFC OTP generated through the same pseudo-random number generator (PRNG) as the OTP NFC, the terminal control server and the administrator User authentication login (Log IN) between smartphones and remote control of the terminal control server with the administrator's smartphone, and the TTS broadcast text generated by the smartphone is encrypted with OTP PUBLIC KEY and transmitted to the terminal control server. It decrypts with the PRIVATE KEY and broadcasts TTS through wired speakers and emergency broadcasting terminals.

When the remote collaboration server connects to the terminal control server,

The private key (PRIVATE KEY) is encrypted with the quantum random number (QRN) generated by the quantum random number generator (QRNG) as a seed, and a collaboration OTP public key (PUBLIC KEY) is generated and transmitted to the remote collaboration server.

The remote collaboration server generates the same pseudo-random number (PRN) through the same pseudo-random number generator (PRNG) as QUANTUM TLS, then generates an OTP collaboration authentication key encrypted with the collaboration OTP public key (PUBLIC KEY), and transmits it to QUANTUM TLS.

QUANTUM TLS decrypts the OTP collaboration authentication key with the collaboration private key (PRIVATE KEY), and in the case of the same pseudo-random number (PRN) generated through the same pseudo-random number generator (PRNG), user authentication login between the terminal control server and the remote collaboration server. It is characterized in that (Log IN) remotely controls the terminal control server with a remote collaboration server.

AI direct fire short-circuit prediction controller, QUANTUM TLS (Transport Layer Security), multi-communication interface, information protection module, monitor speaker, terminal control server, PA broadcasting device, smart broadcasting device including AV broadcasting device and QUANTUM KEY authentication server, multiplex It consists of a facility control server, a multi-use facility alarm terminal, a wired speaker, and an emergency broadcasting terminal.

The QUANTUM KEY authentication server, QUANTUM Transport Layer Security (TLS), includes the same pseudo-random number generator (PRNG), and uses the same pseudo-random number as a random number seed as a symmetric cryptographic algorithm. Algorithm), the QUANTUM KEY authentication server, QUANTUM TLS (Transport Layer Security) generates the same symmetric key (SYMMETRIC KEY).

When the QUANTUM KEY authentication server connects to the QUANTUM Transport Layer Security (TLS), the QUANTUM Transport Layer Security (TLS) is a random unpredictable quantum random number (QRN) generated by a quantum random number generator (QRNG). With the other prime numbers, a pair of a private key (PRIVATE KEY) and a public key (PUBLIC KEY) of the Rivest Shamir Adleman (RSA) asymmetric cryptographic algorithm is generated.

QUANTUM Transport Layer Security (TLS) transmits a public key (PUBLIC KEY) to the QUANTUM KEY authentication server.

Civil defense alarm terminals that can be remotely controlled from the Korea Air and space Operations Center (KAOC) or Article 33, Paragraph 3 of the Framework Act on Civil Defense, Article 55-2 of the Enforcement Decree of the same Act (propagation of civil defense warnings) When the multi-use facility control server receives emergency broadcasting broadcasting data (disaster boundary, disaster risk, air raid, chemical room, TTS (Text To Speech) data) for public buildings such as schools, government offices, etc. The interface is a multi-communication interface that can transmit and receive through the private network, national disaster network, DMB, MMS, Internet, UHD TV, satellite, radio, PSTN, PS-LTE, LoRA, NB-IoT, and SigFox communication networks.

The QUANTUM KEY authentication server is a smart broadcasting device through one or more communication networks among self-network, national disaster network, DMB, MMS, Internet, UHD TV, satellite, radio, PSTN, PS-LTE, LoRA, NB-IoT, and SigFox. As a communication interface, the QUANTUM KEY authentication server ID (IDentification) is encrypted with a symmetric key (SYMMETRIC KEY), and then the terminal QUANTUM KEY encrypted with the PUBLIC KEY received from the QUANTUM Transport Layer Security (TLS) is transmitted.

The multi-communication interface transmits the terminal QUANTUM KEY to QUANTUM Transport Layer Security (TLS).

QUANTUM Transport Layer Security (TLS) receives the terminal QUANTUM KEY encrypted with the public key, decrypts it with the PRIVATE KEY, and then converts the ID (IDentification) encrypted with the SYMMETRIC KEY. If the ID (IDentification) decrypted with SYMMETRIC KEY) is confirmed with the QUANTUM KEY authentication server ID (IDentification), the network log-in is connected.

The multi-use facility control server encrypts emergency broadcasting broadcasting data (disaster boundary, disaster risk, air raid, chemical room, TTS (Text To Speech) data) with a public key (PUBLIC KEY) and uses QUANTUM TLS (Transport Layer Security) through a multi-communication interface. ).

QUANTUM Transport Layer Security (TLS) decrypts emergency broadcast broadcast data (disaster boundary, disaster risk, air raid, Hwasaengbang, TTS (Text To Speech) data) encrypted with a public key (PUBLIC KEY) with a private key (PRIVATE KEY). It is transmitted to the terminal control server.

The terminal control server transmits emergency broadcast broadcasting data (disaster alert, disaster risk, air raid, chemical room, TTS (Text To Speech) data) to the multi-use facility alarm terminal.

The multi-use facility alarm terminal transmits emergency broadcast broadcast data (disaster boundary, disaster risk, air raid, chemical room, TTS (Text To Speech) data) through any one or more of sound, voice, or video through a PA broadcast device or AV broadcast device. Express.

The terminal control server inside the smart broadcasting device transmits the TTS (Text To Speech) emergency broadcasting data among the emergency broadcasting broadcasting data to the wired speakers connected through the wired network network, so that the direct broadcasting and the terminal control server inside the smart broadcasting device are multi-use facilities on each floor. It directly broadcasts TTS (Text To Speech) emergency broadcast broadcast data through an emergency broadcast terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency radio repeater installed in the EPS room.

The terminal control server periodically performs a line ping test through the AI direct fire short prediction controller and transmits the ping test result report to the manager's smartphone.

When the terminal control server receives a fire event from the fire reception unit, the AI direct fire short prediction controller presses the AI mode selection ON/OFF button to perform a direct fire sequential fire emergency broadcast through the AI direct fire short prediction controller. When the AI mode selection button is ON, if a short-circuit layer occurs during the sequential emergency broadcasting of direct fire, it automatically connects to the next-order emergency broadcasting.

When the emergency broadcasting terminal receives and broadcasts emergency broadcasting data while the AI mode selection button of the AI direct fire short-circuit prediction controller is OFF, the sound data received through the internal monitor microphone is transmitted to the internal information protection module of the smart broadcasting device. .

The information protection module transmits the sound data to the terminal control server only when the emergency broadcast broadcast data is transmitted through the emergency broadcast terminal.

The terminal control server broadcasts the received sound data to the monitor speaker only when the emergency broadcast broadcast data is transmitted through the emergency broadcast terminal.

The emergency broadcasting terminal installed inside/outside the building consists of a wired terminal block, wireless receiver, amplification part, speaker part, monitor microphone, AC supply part, storage battery, super capacitor, driving part, power control part, main control part, and transmits emergency broadcasting broadcasting data. It is a wired terminal block to which the fire protection cable is connected, is a wireless receiver that receives the radio frequency modulated by emergency broadcasting data, an amplifying unit that amplifies the radio frequency modulated by emergency broadcasting data, and the radio frequency by which emergency broadcasting data is modulated. The speaker unit converts the sound into sound, the AC supply unit is an AC supply unit that supplies driving power to the driving unit by receiving AC power at all times, and the storage battery receives power from the AC supply unit and charges it to supply power to the driving unit.

When it is not possible to supply constant power through the AC supply, unlike a storage battery, a charged super capacitor is a super capacitor that supplies power for one emergency broadcast to the driving unit by using the characteristic that natural discharge does not occur.

The driving unit is a driving unit that receives driving power from an AC supply unit, a storage battery, or a super capacitor and supplies driving power to the wireless receiver, amplifying unit, speaker unit, power control unit, monitor microphone, and main control unit.

The main control unit consisting of a microprocessor controls the wireless receiver, amplification unit, speaker unit, AC supply unit, super capacitor, drive unit, monitor microphone, power control unit, and the main control unit controls the power control unit to receive AC power through the storage battery. Driving power is supplied to the supply unit, but when it is impossible to supply the driving power to the AC supply unit due to deterioration of the performance of the storage battery, power failure or fire, the power control unit is controlled to supply the driving power through a super capacitor.

The driving unit supplies driving power to the monitor microphone, generates sound data through the monitor microphone, and transmits it to the information protection module inside the smart broadcasting device only when emergency broadcasting broadcast data is received.

The terminal control server includes emergency broadcasting sequential mode selection ON/OFF buttons, and when the sequential mode selection button is ON, emergency broadcasting broadcasting data (disaster alert, disaster risk, air raid, hwasaengbang, TTS (Text To Speech) data) ) Is sequentially broadcast on the inner floors of the building.

When the sequential mode selection button is in the OFF state, emergency broadcasting broadcast data (disaster alert, disaster risk, air raid, chemical room, TTS (Text To Speech) data) is broadcast to all floors of the building at once.

The terminal control server is composed of emergency broadcasting manager mode selection ON/OFF buttons, and when the administrator mode selection button is ON, emergency broadcasting broadcasting data (disaster alert, disaster risk, air raid, hwasaengbang, TTS (Text To Speech) data) ) Is a smart broadcasting device, characterized in that it transmits an emergency broadcasting broadcast data reception alarm to the manager's smartphone.

It is composed of QUANTUM TLS, information protection module, monitor speaker, terminal control server, PA broadcasting device, smart broadcasting device including AV broadcasting device, QUANTUM KEY authentication server, center control server, wired speaker, and emergency broadcasting terminal.

QUANTUM KEY authentication server, QUANTUM TLS, is a random number seed that includes the same pseudo-random number generator (PRNG) to generate the same pseudo-random number. Generate.

When the QUANTUM KEY authentication server connects to QUANTUM TLS, QUANTUM TLS uses the random unpredictable quantum random number (QRN) generated by the quantum random number generator (QRNG) as a random number seed as the private key of the asymmetric key encryption algorithm. ) And PUBLIC KEY pair.

QUANTUM TLS transmits the public key (PUBLIC KEY) to the QUANTUM KEY authentication server.

When the center control server generates emergency broadcasting broadcast data, the QUANTUM KEY authentication server encrypts the QUANTUM KEY authentication server ID (IDentification) with the SYMMETRIC KEY to the terminal control server through the network and then receives it from QUANTUM TLS. Public key (PUBLIC KEY) The encrypted terminal QUANTUM KEY is transmitted through QUANTUM TLS.

QUANTUM TLS receives the terminal QUANTUM KEY and logs in the network network between the center control server and the terminal control server when the ID (IDentification) decrypted with the PRIVATE KEY and SYMMETRIC KEY is confirmed as the user ID. (Log-In) Connect.

The center control server encrypts emergency broadcast broadcast data with a public key and transmits it through the network network as QUANTUM TLS.

QUANTUM TLS decrypts emergency broadcast broadcast data encrypted with a public key (PUBLIC KEY) with a private key (PRIVATE KEY) and transmits it to the terminal control server.

The terminal control server displays emergency broadcast broadcast data through a PA broadcast device or an AV broadcast device through one or more of sound, audio, or video.

The terminal control server inside the smart broadcasting device transmits TTS (Text To Speech) emergency broadcasting data to the wired speakers connected through the wired network network, and the terminal control server inside the smart broadcasting device is a license-free frequency installed in the EPS room on each floor of the multi-use facility. It is a smart broadcasting device characterized in that it broadcasts TTS (Text To Speech) emergency broadcasting broadcasting data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through a wireless repeater.

The present invention is a technical field separate from the LTE-LAA frequency bundling technology for transmitting data by bundling an LTE licensed band and an unlicensed band including a Wi-Fi frequency.

The prior art is a technology for selecting a frequency according to traffic in data transmission,

The QUANTUM KEY of this technology is a licensed band, and the data is differentiated by the QUANTUM COLLABO applied with AC (Access Controller) that selects the unlicensed band frequency.

Purposely and effectively, it is differentiated as a heterogeneous network application technology to reinforce security in ancillary applications of unlicensed frequencies to manage base station traffic from the side of the communication service provider and use of unlicensed frequencies from the side of users.

In the field of industrial use, the present invention is a field of constructing a closed wireless self-network in which the security of local governments (individuals) is enhanced.

In the problem to be solved, the present invention aims to solve the problem for minimizing the cost of communication (data) by using a QUANTUM KEY distribution technology applying a QRNG chip to enhance security in a hybrid quantum communication network.

In conclusion, unlike the technology of selecting either the Licensed Band or the Unlicensed Band for data to be transmitted in any form such as the conventional Multiplexing Mode, Diversity Mode, etc., the present invention provides security in any one of 3G, 4G, 5G licensed bands for communication service providers. The QUANTUM KEY is transmitted through a channel, and the data to be transmitted is transmitted through an unlicensed band closed wireless self-network. From a differential start to clearly separate heterogeneous networks,'Purpose''Background' Task''Means''Effect' Differently.

There are three QUANTUM KEYs generated by the key generation algorithm applied to the present invention.

The same symmetric key (SYMMETRIC KEY) of the symmetric cryptographic algorithm stored between Alice QUANTUM SERVER and QUANTUM COLLABO, and the asymmetric private key (PRIVATE KEY) and asymmetric public key generated by the asymmetric cryptographic algorithm ( PUBLIC KEY), which consists of three types: a symmetric key, a private key, and a public key.

After generating a symmetric key with a random number seed generated through QRNG (Quantum Random Number Generator), it is used as a data communication encryption/decryption key.

The private key generated by the PUF (Phisycally Unclonable Function) PIN data as a seed and the public key pair generated by encrypting the private key with the quantum random number seed generated through QRNG are OTP (One Time Password) login ( Log In) This is a one-time password created for the purpose of connecting to the network.

Wired/wireless for Eve single QUANTUM KEY in 5G wireless network and wired quantum network network composed of non-QUANTUM CHANNEL, QUANTUM CHANNEL, and hybrid-QUANTUM CHANNEL, not QUANTUM KEY QKD (Quantum Key Distribution) technology between Alice and Bob As a QKD (Quantum Key Distribution) technology between heterogeneous networks and licensed/unlicensed frequency wireless communication networks, it is an important feature of technology to minimize data charges while maximizing security.

That is, there is an important differentiation in minimizing data transmission charges by minimizing data transmission of image data captured by a UHD camera through a 5G wireless network of a communication service provider.

In particular, licensed/unlicensed radio frequency and wired/wireless heterogeneous networks , not conventional QKD (Quantum Key Distribution) exchanging QUANTUM KEY between Alice and Bob through one channel (single wired optical communication network, single frequency wireless communication network) It features a One Way Ring Network in which Eve QUANTUM KEY is transmitted in a RING method only in one direction in the network.

That is, it features the following data transmission path.

QUANTUM COLLABO ⇒ 5G communication modem ⇒ 5G wireless network ⇒ Alice 6G QUANTUM SERVER ⇒ Wired quantum communication network ⇒ Bob 6G QUANTUM SERVER ⇒ QUANTUM 5G AP ⇒ 5G communication modem ⇒ QUANTUM COLLABO ⇒ 5G communication modem ⇒ QUANTUM 5G AP ⇒ Bob 6G QUANTUM SERVER Wired quantum communication network ⇒ Alice 6G QUANTUM SERVER

Conventional,

It features a hybrid quantum communication closed network system that minimizes communication charges by differentiating it from'Alice 6G QUANTUM SERVER ⇔ wired quantum communication network ⇔ Bob 6G QUANTUM SERVER'.

In the conventional quantum security communication, the quantum key transmission method is a technology that solves the problem of the limitation of the transmission distance between the leased line, and the quantum mechanics is applied through TIWIN USB with TRNG (QRNG) that mutually authenticates the physically unique PUF. It is a certified invention.

In particular, in order to solve the conventional problem that can be hacked with quantum computers when Alice VPN and Bob VPN communicate on an ISP network without a quantum communication channel, PUF's Unique TRNG (QRNG) One Time Password The decoy-Quantum Certificate technology using communication quantum coherence is applied.

In addition, the PUF itself cannot be modified and duplicated, but the e-FUSE SoC (Syste on Chip) technology solves the problem of forgery and alteration when the PUF Chip itself is mounted on another terminal (board) and modulated.

In detail,

The Alice main control unit (MCU) inside the Alice quantum security USB combines the Bob PIN data stored in (Alice PUF memory (PUF M/M) with the Alice e-FUSE ID (IDentity Address)) with the Bob public key received through Alice VPN. ) The encrypted Alice KEY is transmitted to Bob VPN inside Bob's quantum security USB through Alice VPN.

Bob's main control unit (MCU) inside Bob's quantum security USB combines the Alice PIN data stored in (Bob PUF memory (PUF M/M) with the Bob e-FUSE ID (IDentity Address)) with the Alice public key received through Bob VPN. ) The encrypted Bob KEY is transmitted to Alice VPN inside Alice's quantum security USB through Bob VPN.

The Alice main control unit (MCU) inside the Alice quantum security USB decrypts the Alice QUANTUM public key encrypted Bob KEY with the Alice private key,

Alice Security CPU is able to decrypt Alice PIN data because it creates Alice private key that combines Bob e-FUSE ID and beta OR (EX-OR) with Alice PIN data. Alice PIN data and SOC's own Bob e-FUSE ID If any one of them does not match, decryption becomes impossible.

The private key is commonly used as a private key, a decryption key, and a PRIVATE KEY, and the public key is commonly used as an encryption key and PUBLIC KEY.

The cryptographic key used in the symmetric cryptographic algorithm is called a'symmetric key', and the fact that the symmetric key uses one key that is the same for encryption and decryption is already common in the technical field to which this invention belongs. It is a technical fact that is well known to those with knowledge (hereinafter referred to as'common technicians').

For example, if Alice and Bob share a symmetric key with each other, and Alice encrypts data with a symmetric key and sends it to Bob, Bob decrypts it with the same symmetric key.

In addition, in the asymmetric cryptographic algorithm, there is a key pair called a'private key' and a'public key' mathematically corresponding to this private key, and encryption is performed with a public key, The fact that decryption is performed with the corresponding private key is a technical fact that is well known to those skilled in the art.

Looking at the technical facts of the general publicity above and the technical configuration (key generation method and encryption/decryption method) disclosed in the description of the invention, it means a key pair consisting of the'public key' and the'private key' of the asymmetric key encryption algorithm. The technical or mathematical correlation between'public key' and'private key' applies techniques commonly known to those of ordinary skill in the art, such as beta-OR (EX-OR), fixed-length hash function, RSA encryption, etc. that are prescribed in advance between Alic and Bob. Thus, the present invention is not limited to the claims, but for the sake of understanding of the invention, a beta-OR (EX-OR) will be described as a representative example.

That is, in the technical or mathematical correlation and decryption between the'public key' and the'private key', various known techniques such as beta-OR (EX-OR), known operators, and equations can be applied.

For example, PIN (Personal Identification Number) data from the PUF chip through process deviations that occur in the semiconductor manufacturing process related to security key generation and distribution using a microscopically unclonable function (PUF) chip and a quantum random number generator (QRNG) chip. Extracts and generates a private key (private key, decryption key, PRIVATE KEY) as a random number seed.

Not only does it generate a private key from the PIN (Personal Identification Number) data supplied from the PUF Chip as a seed, but also generates a private key from an unpredictable random quantum (natural) random number as a seed. It is possible to generate a private key using the generated pseudo-random number as a seed.

The private key generated by the above method is a beta logical combination of PIN (Personal Identification Number) data, a quantum random number generated through QRNG, a natural random number generated through TRNG, and a random number seed generated through PRNG. Calculate (EX-OR) to generate a public key (encryption key, PUBLIC KEY), and use a private key (PRIVATE KEY) if you know the expression beta OR (EX-OR) and random number seed (Seed). It is possible to decrypt the encrypted data with the public key (PUBLIC KEY) is a claim that the technical facts of common knowledge are applied to those with ordinary knowledge in the technical field to which this invention belongs (hereinafter referred to as ``normal engineer''). It is not limited to.

The public key (PUBLIC KEY) is generated by encrypting the private key (PRIVATE KEY) through a random quantum random number generated through QRNG.

When the data measured by the sensor is encrypted with a public key (PUBLIC KEY, encryption key), the data measured by the original sensor can be restored through the private key (PRIVATE KEY, decryption key).

It is the same concept as "private key = private key = decryption key = PRIVATE KEY" and "public key = encryption key = PUBLIC KEY".

In one embodiment,

A terminal unit including a surveillance camera, a TRNG natural random number generator, a QUANTUM COLLABO, and a wireless communication modem; And

Consisting of Bob 6G QUANTUM SERVER, which includes QUANTUM 5G AP; and Alice 6G QUANTUM SERVER connected via wired and wireless network, QUANTUM COLLABO extracts Eve PIN data from the internal eFUSE Chip and hash function ( HASH) to generate an Eve private key <HASH (Eve PIN DATA)>; Eve PIN DATA and Eve private key <HASH (Eve PIN DATA)> are stored in QUANTUM COLLABO and Alice 6G QUANTUM SERVER; QUANTUM COLLABO receives the natural random number (TRN) from the TRNG natural random number generator, encrypts the Eve private key <HASH(Eve PIN DATA)> with the natural random number (TRN), and encrypts the Eve public key <HASH(Eve PIN DATA)+(TRN). )>; The wireless communication modem receives the Eve public key <HASH(Eve PIN DATA)+(TRN)> and a hash function (HASH) from QUANTUM COLLABO; The wireless communication modem transmits the hash function <(HASH(Eve PIN DATA)+(TRN)) ∥(HASH)> encrypted with the Eve public key to the Alice 6G QUANTUM SERVER through the wireless network network; Alice 6G QUANTUM SERVER receives the hash function <(HASH(Eve PIN DATA)+(TRN))∥(HASH)> encrypted with the Eve public key through the wireless network and uses the Eve private key <HASH(Eve PIN DATA)>. Decrypt; If the Eve private key <HASH(Eve PIN DATA)> is decrypted with the decrypted hash function (HASH) and matches the Eve PIN data stored in the Alice 6G QUANTUM SERVER, the Alice 6G QUANTUM SERVER is used as the Eve public key. Transmit encrypted Eve PIN data <HASH(Eve PIN DATA)+(TRN)∥(Eve PIN DATA)> to Bob 6G QUANTUM SERVER through wired network; Bob 6G QUANTUM SERVER transmits Eve PIN data <HASH(Eve PIN DATA) + (TRN) ∥(Eve PIN DATA)> encrypted with the Eve public key to the wireless communication modem through the QUANTUM 5G AP; The wireless communication modem transmits Eve PIN data <HASH(Eve PIN DATA) + (TRN) ∥(Eve PIN DATA)> encrypted with the Eve public key to QUANTUM COLLABO; QUANTUM COLLABO decrypts Eve PIN data <HASH(Eve PIN DATA)+(TRN)∥(Eve PIN DATA)> encrypted with Eve public key with Eve private key <HASH(Eve PIN DATA)> and stores Eve PIN data (Eve PIN DATA), transmits the image data <HASH(Eve PIN DATA) + (TRN) ∥(image data)> encrypted with the Eve public key to the wireless communication modem; The wireless communication modem transmits the image data <HASH(Eve PIN DATA)+(TRN)∥(image data)> encrypted with the Eve public key to the Bob 6G QUANTUM SERVER through the QUANTUM 5G AP; Bob 6G QUANTUM SERVER transmits video data <HASH(Eve PIN DATA)+(TRN) ∥(video data)> encrypted with Eve public key to Alice 6G QUANTUM SERVER through wired network; Alice 6G QUANTUM SERVER receives video data <HASH(Eve PIN DATA)+(TRN)∥(video data)> encrypted with Eve public key from wired network and decrypts it with Eve private key <HASH(Eve PIN DATA)>. .

In one embodiment,

Quantum Communication Channel

Alice QUANTUM SERVER and Bob QUANTUM SERVER are connected to a network that has formed a quantum communication channel.

Alice QUANTUM SERVER receives random quantum random numbers generated from Alice QRNG, generates QUANTUM KEY, and transmits them to Alice QKD and Alice MASTER SERVER.

Alice QKD transmits the QUANTUM KEY to Bob QKD through a quantum communication channel.

Bob QUANTUM SERVER receives QUANTUM KEY from Bob QKD and transmits it to Bob MASTER SERVER.

Non-QUANTUM Communication Channel

Alice MASTER SERVER and Bob MASTER SERVER are connected to a network that does not form a quantum communication channel.

Quantum security terminal consists of MCU, QRNG, PUF, VPN, memory, network breaker, and is classified into Alice quantum security terminal and Bob quantum security terminal.

Alice PIN data is extracted from the Alice PUF inside the Alice quantum security terminal and stored in the Bob memory inside the Bob quantum security terminal.

Bob extracts the Bob PIN data from the Bob PUF inside the quantum security terminal and stores it in the Alice memory inside the Alice quantum security terminal.

The Alice MCU inside the Alice quantum security terminal extracts the Alice PIN data from the Alice PUF and generates the Alice private key.

Alice QRNG generates a random quantum random number and sends it to Alice MCU.

Alice MCU generates the Alice public key by performing EX-OR encryption on the Alice private key using the random quantum random number as a seed.

The Bob MCU inside the Bob quantum security terminal extracts the Bob PIN data from the Bob PUF and generates the Bob private key.

Bob QRNG generates a random quantum random number and sends it to Bob MCU.

The Bob MCU generates a Bob public key by performing EX-OR encryption on the Bob private key using the random quantum random number as a seed.

When the Alice MCU inside the Alice quantum security terminal transmits the Alice public key to Bob VPN through the Alice VPN, the Bob MCU inside the Bob quantum security terminal receives the Alice public key from the Bob VPN.

Bob MCU inside the Bob quantum security terminal transmits the Bob public key to Alice VPN through Bob VPN, and the Alice MCU inside the Alice quantum security terminal receives the Bob public key from Alice VPN.

The Alice MCU inside the Alice quantum security terminal encrypts the Bob PIN data stored in the Alice memory with the Bob public key received through the Alice VPN and transmits it to the Bob VPN inside the Bob quantum security terminal through the Alice VPN.

The Bob MCU inside the Bob quantum security terminal encrypts the Alice PIN data stored in Bob's memory with the Alice public key received through the Bob VPN and transmits it to the Alice VPN inside the Alice quantum security terminal through the Bob VPN.

The Alice MCU inside the Alice quantum security terminal matches the Alice PIN data decrypted with the Alice private key and the Alice PIN data extracted from the Alice PUF, and the Bob MCU inside the Bob quantum security terminal. If the Bob PIN data encrypted with the Bob public key and the Bob PIN data decrypted with the Bob private key match the Bob PIN data extracted from the Bob PUF, the Alice MASTER SERVER connected to the Alice quantum security terminal and the Bob MASTER SERVER connected to the Bob quantum security terminal In between, connect the network breaker to log in.

In one embodiment,

The e-FUSE extracts the PIN data extracted from the physically unique hardware pin (PIN) generated in the semiconductor manufacturing process, programmed, assigns an ID, and blocks the e-FUSE pin (short circuit) so that re-extraction is impossible. Gives a unique ID of the chip (System On Chip).

The PUF Chip can extract the PIN data extracted from the physically unique hardware pin (PIN) generated in the semiconductor manufacturing process. When the PUF Chip is duplicated, the PUF hardware pin is short circuited. Re-extraction is possible.

In data encryption/decryption,

The Bob PIN data stored in the Alice PUF memory is combined with Alice e-FUSE ID to encrypt the data encrypted with Alice KEY. Bob security CPU creates the Bob private key combined with Alice e-FUSE ID in the Bob PIN data to secure Bob It is decrypted with Bob's private key stored in OTP memory.

In one embodiment,

Alice and Bob are composed of two pairs, and two-way communication is possible based on the same principle by adding the same system (two groups of four), but it is common for two-way communication to be possible with the same principle in the reverse direction. As a method, some will be omitted from the detailed description.

In addition, if a two-way communication modem is applied, two-way communication is possible between Alice and Bob in pairs.

Security (PUF-QRNG TIWIN) USB consists of a set of Alice quantum security USB and Bob quantum security USB, and the structure and function are the same.

Depending on the delivery direction of the quantum certificate (QC), the debugger (QC-DEBUGGER) inside the security (PUF-QRNG TIWIN) USB works only at the receiver, but it is structurally the same as it is the same security (PUF-QRNG TIWIN) USB. do.

In addition, when the two-way communication channel is a two-way communication channel, the debugger (QC-DEBUGGER) is also a TIWIN USB that operates the same in two security (PUF-QRNG TIWIN) USBs.

Aice VPN and Bob VPN inside a pair of security (PUF-QRNG TIWIN) USB have the feature that communication can only be performed between a pair of security (PUF-QRNG TIWIN) USB.

Quantum Random Number Generator (QRNG) passes Photon through a half mirror, is detected through single-photon detectors, and monitors Quantum modulation and duplication.

Random numbers are read through Quantum-APPLIANCE, saved to a file or displayed on the screen, and quantum random number generator QRNG is accessed through Libraries.

It is an encryption platform that implements security policy through Quantum-PLATFORM, monitors and signs quantum certificates (QC), distributes them to cryptographic generators, and plays the role of a certification body that accepts QC-DEBUGGER.

Quantum Key Distribution (QKD) is a cryptographic key distributor that is composed of Alice QKD transmitter and Bob QKD receiver, and is connected through a dedicated optical cable line. The transmitter QKD-A (ALICE) emits a laser beam and a receiver, QKD-B (BOB). ) Is applied with an external single photon detector.

The physical object authentication PUF (Phisycally Unclonable Function) chip of the present invention and OTP (One Time Password) authentication security generated through the QRNG (Quantum Random Number Generator) generating natural random numbers provides the highest security that cannot be hacked even with a quantum computer. Have.

By extracting PIN (Personal Identification Number) data from the PUF chip through the process deviation that occurs in the semiconductor manufacturing process related to the generation and distribution of security keys using the ultra-small PUF (Phisycally Unclonable Function) chip and QRNG (Quantum Random Number Generator) chip. A private key is generated, and the private key is encrypted using a random quantum random number generated through QRNG to generate a public key.

When the data measured by the sensor is encrypted with a public key, the data measured by the original sensor can be restored through the private key.

In performing IoT communication between devices, the device performing the IoT communication may itself generate and hold a secure PIN or password to perform knowledge-based authentication.

For such knowledge-based authentication, the device may include physical unclonable functions (PUFs) that are robust against external security attacks and generate a random and unique PIN.

According to an embodiment, the PUF generates a PIN that can be used as an authentication key for knowledge-based authentication. This PIN may be a random digital value generated by process variations occurring during the PUF manufacturing process.

In addition, the PIN may be a digital value of time-invariant that does not change according to the surrounding environment after being generated once. Since such a PIN is not exposed to the outside, according to an embodiment, it is possible to prevent a security threat to the authentication system of the device.

When a device performs IoT communication with another device through a communication interface, the authentication unit may perform knowledge-based authentication by receiving the PIN generated by the PUF itself.

In the security authentication according to an embodiment, the device may include a private key module and a private key module. Here, at least one of the private key module and the private key module may include a PUF.

According to an embodiment, each of the secret key module and the private key module has its own unique PUF, and each PUF has a secret key and a private key from the physical characteristics itself. Hereinafter, since such a secret key and/or a private key may be expressed as a PIN, the PIN may be understood as a concept including without excluding anything such as a secret key and a private key used for security authentication of a device.

The PUF is a circuit that generates different function values even if it is manufactured with the same design drawing by using the characteristic deviation caused by the process variation. In some embodiments, a PIN of the IoT communication device is generated and provided. Strictly, it can be seen that the PIN is generated using the digital value itself, not generated by the physical characteristics of the PUF.

For example, a value given from an external trusted source may be used as a seed, and the result of encrypting the original digital value generated by the PUF may be used as the PIN.

In this process, according to an embodiment _{, a method of putting the digital value V PUF} provided by the PUF into the seed and hash function is used. Therefore, the finally used PIN value may be Hash (V _PUF || Seed).

According to this embodiment, when the private key is leaked through any path, since the PIN can be easily changed by only changing the seed value, safety and convenience can be improved.

However, such PIN value generation is only for some embodiments, and embodiments include both a case where a digital value generated by a PUF is used as a PIN and a case where a value processed separately from the PUF is used as a PIN. Hereinafter, the contents including all of these embodiments should be understood even if the process of generating a new PIN by processing the digital value generated by the PUF is not mentioned individually.

On the other hand, since the PUF has an unpredictable random value, it can be used to determine the PIN of the device, and by using this, it is possible to prevent the problem of PIN leakage that may occur when externally generated, injected, and stored in a memory.

In addition, since the PUF has a feature that it cannot be physically duplicated, the possibility that the PIN number of the device will be leaked or duplicated afterwards can be eliminated.

In addition, the PIN value generated by the PUF has excellent randomness, and in embodiments, the value generated once does not change over time and is reliable.

According to an embodiment, in the serial number storage unit, a serial number is stored as a device's unique value provided by a factory in the manufacturing process of the device, and the device's unique serial number from the factory is I/O. The secret key is extracted from the secret key module to the factory or to the outside with management authority, only once it is input to the device through the interface, and only once-it does not have to be once according to the policy, but can be designated as once for security maintenance. Can be.

Further, according to an embodiment, the PUF Chip is an e-FUSE that extracts a disconnection signal according to the hardware pin setting of the ENABLE circuit generated during the SOC (System On Chip) manufacturing process, and may be replaced by an e-FUSE. have. In this embodiment, the fuse unit physically blocks the connection between the secret key module and the I/O interface after the first secret key is extracted, which is irreversible.

Then, only the first secret key extracted once can be safely managed by the subject with the management authority, and it is impossible to newly extract the secret key of the device after the fuse unit is blocked. This is because the secret key module is implemented by the PUF and physically cannot be replicated, and it is impossible or very difficult to extract the secret key by various reverse engineering including power analysis attacks.

According to an embodiment, the device includes a private key module that generates a private key to be used in a public key encryption/decryption communication method, and the private key module may provide the private key by a PUF separate from the private key module. .

The private key generated and provided by this private key module is physically isolated from the outside, and is not extracted to the outside from device manufacturing to distribution and use. Of course, for the same reason as the aforementioned secret key module, artificial private key leakage by physical attack is also impossible.

Therefore, since the private key provided by the private key module does not leak outside, it is possible to authenticate the device through a PIN generated by the device itself in M2M.

According to an embodiment, the public key generation unit generates a public key to be used by the device in the public key encryption/decryption communication method using the private key generated by the private key module, which is stored in the public key storage unit. do. The public key storage unit is a means for storing the generated public key, and may be a non-volatile memory according to an embodiment.

Of course, the public key storage unit is employed optionally, and in other embodiments, it is possible to read the public key generated by the public key generation unit whenever authentication is required without the public key storage unit.

The encryption/decryption processor can be understood as a Crypto-coprocessor that performs general data encryption and decryption, and the configuration of actually exchanging encrypted data with the outside in a communication network is a communication interface.

According to an embodiment, when the first extracted secret key is exchanged with a certification authority (CA), which is a management subject with legitimate authority to perform secure communication with the device, it is confirmed that each other is a legitimate entity. It is used only as a means of doing.

That is, although it is the first time, the secret key that has already been extracted is not used for direct encryption/decryption, but the secret key is used only in the process of sending the public key to the outside by the secret key encryption method, thereby ensuring double security. Therefore, the private key used for actual device authentication is never exposed to the outside.

Hereinafter, the process of manufacturing a device in a factory, the process of distributing or distributing the device, the process of exchanging a public key using a private key communication method while being actually used, and the actual device communicates with a CA or other devices by verifying each other's validity. The process to be performed will be described in detail below.

First, differences adopted in the embodiments with respect to the PUF implementation will be described in comparison with conventional PUF implementations, and then an example of a specific implementation will be described.

PUF (Physically Unclonable Function) can provide unpredictable digital values. Individual PUFs are given an exact manufacturing process, and even though they are manufactured in the same process, the digital values provided by the individual PUFs are different.

Accordingly, PUF may be referred to as POWF (Physical One-Way Function practically impossible to be duplicated) in which replication is impossible, or may also be referred to as PRF (Physical Random Function).

This PUF can be used to generate an encryption key for security and/or authentication. For example, a PUF can be used to provide a unique key to distinguish devices from one another.

Conventionally, in order to implement such a PUF, a coated PUF was implemented using randomly doped particles on the top layer of the IC, and it is generally used in hardware chips such as latches. Recently, butterfly PUFs, which can be implemented in FPGAs, have also been implemented using process variations inside the CMOS devices used.

However, in order to be reliable so that applications using PUF for PIN generation can be commercialized, the physical duplication of the PUF circuit itself, the randomness of the generated PIN, and the value of the PIN once generated do not change over time. All unchanged time immutability must be guaranteed.

However, most of the conventional PUF circuits have difficulty in commercialization because at least one of the randomness and time-invariance of values that must be satisfied as a PUF or PRF cannot be guaranteed at a high level.

The PUF used in the embodiments can be generated at a very low cost during the semiconductor manufacturing process while ensuring time invariability and randomness to a very reliable level by solving these conventional problems.

According to an embodiment, in order to satisfy the randomness and time immutability of a PIN generated by a PUF at the same time, a random value is generated using randomness due to whether or not there is a short between nodes existing in a semiconductor process.

In the PUF according to an embodiment, the size of a contact or a via used to electrically connect between conductive layers in a semiconductor chip is a size that is surely connected in a process, that is, a shape smaller than a design rule. Implemented as, whether or not the short circuit is randomly determined. In other words, it intentionally violates the design rule and generates a random PIN value.

Since this new PUF circuit is composed of a very simple short circuit, there is no additional circuit or process in the process, and since there is no need for a special measuring device, it can be easily implemented. And because it uses the characteristics of the process, stability can be satisfied while maintaining the randomness of values.

In the semiconductor chip manufacturing process, in particular, the via (or enable circuit) generated in the SOC (System On Chip) manufacturing process of the present invention extracts the hardware pin setting of e-FUSE as PIN data to generate a private key. , The public key encrypted with a random random number (QRNG) is decrypted with a private key (PIN data).

Characteristic of the SOC (System On Chip) of the present invention, the disconnection signal generated according to the hardware pin setting (via) in the SOC is extracted as PIN data, but a unique ID is assigned to e-FUSE (electrical-FUSE) for extraction. It is done.

The PUF itself cannot be forged or altered, but the terminal (board) on which the PUF is mounted can be altered by detaching the PUF chip and then installing it on another board (terminal), so the e-FUSE and the PUF are integrated into the security enable circuit. It is characterized by the first technology developed in the form of an SOC chip.

In particular, even if the SOC and PUF booting through the e-FUSE-equipped SOC are separated, even if the physical and unique authentication of the PUF is forged and altered, the boot-ROM program authentication of the e-FUSE-equipped SOC must be mutually authenticated. It features a security CPU (Security CPU) and OTP (One-Time Programmable) e-FUSE featuring a bootable Security ENABLE circuit.

In one embodiment,

Alice quantum security USB is Alice Boot-ROM connected by Alice System Bus, Alice Main Control Unit (MCU), Alice System M/M; System MEMORY, Alice VPN (Virtual Private Network) , Alice Debugger (QC-DEBUGGER), Alice I/O Port, Alice Serial Peripheral Interface Controller (SPI Controller), Alice True Random Number Generator (TRNG), Alice Security CPU (Security CPU; Security Central Processing Unit), Alice Security OTP M/M; Security One Time Password MEMORY, Alice PUF Memory (PUF M/M; Phisycally Unclonable FunctionMEMORY), Alice e-FUSE, Alice PUF Chip It is composed of (Phisycally Unclonable FunctionChip).

Alice main control unit (MCU) is Alice Boot-ROM connected by Alice System Bus, Alice System M/M, Alice VPN (Virtual Private Network), Alice Debugger (QC-DEBUGGER) , Alice input/output device (I/O Port), Alice serial peripheral device interface (SPI Controller) control.

Alice security CPU (Security CPU) is Alice debugger (QC-DEBUGGER), Alice I/O device (I/O Port), Alice serial peripheral device interface (SPI Controller), Alice pure random number generator (TRNG), Alice security OTP memory (Security OTP M/M), Alice PUF memory (PUF M/M), Alice e-FUSE, Alice PUF Chip.

Alice System M/M stores programs and data necessary for Alice's main control unit (MCU).

Alice serial peripheral device interface (SPI Controller) is connected to Alice I/O device (I/O Port) and controls Alice I/O device (I/O Port) according to the control command of Alice main control unit (MCU) to turn on the network network connection. /OFF control.

Alice Boot-ROM stores programs and data necessary for booting of Alice's main control unit (MCU).

Alice VPN performs 1:1 encrypted communication between Bob VPN inside Bob's quantum security USB connected to the network.

Alice debugger (QC-DEBUGGER) receives QC (decoy Qantum Certificate) through Alice input/output device (I/O Port) and turns on/off the network network through Alice input/output device (I/O Port) according to the authentication status. OFF control.

Alice I/O Port is a switch connected to the network network and transmits the data received through the network network ON/OFF control and the network network to the Alice main control unit (MCU) through the Alice system bus.

Alice Security CPU extracts Alice PIN data from Alice PUF Chip and stores it in Bob PUF memory (PUF M/M).

The Alice Security CPU transmits Alice PIN data to the Alice main control unit (MCU).

The Alice security CPU generates an Alice private key combined with a Bob e-FUSE ID (IDentity Address) in the Alice PIN data and stores it in the Alice security OTP memory (Security OTP M/M).

The Alice security CPU generates the Alice public key by encrypting the Alice private key with a random number generated by the Alice pure random number generator (TRNG) and transmits it to the Alice main control unit (MCU).

Bob quantum security USB is a Bob Boot-ROM connected by Bob System Bus, Bob Main Control Unit (MCU), Bob System M/M; System MEMORY, Bob VPN (Virtual Private Network) , Bob Debugger (QC-DEBUGGER), Bob I/O Port, Bob Serial Peripheral Interface Controller (SPI Controller), Bob True Random Number Generator (TRNG), Bob Security CPU ( Security CPU; Security Central Processing Unit), Bob Security OTP M/M; Security One Time Password MEMORY, Bob PUF Memory (PUF M/M; Phisycally Unclonable FunctionMEMORY), Bob e-FUSE, Bob PUF Chip( Phisycally Unclonable FunctionChip).

Bob main control unit (MCU) is Bob Boot-ROM connected by Bob System Bus, Bob System M/M, Bob VPN (Virtual Private Network), Bob Debugger (QC-DEBUGGER) , Bob input/output device (I/O Port), Bob serial peripheral device interface (SPI Controller) control.

Bob's security CPU (Security CPU) includes Bob Debugger (QC-DEBUGGER), Bob I/O Device (I/O Port), Bob Serial Peripheral Device Interface (SPI Controller), Bob Pure Random Number Generator (TRNG), and Bob Security OTP Memory (Security CPU). OTP M/M), Bob PUF memory (PUF M/M), Bob e-FUSE, Bob PUF Chip.

The Bob System M/M stores programs and data necessary for the Bob main control unit (MCU).

The Bob serial peripheral interface (SPI Controller) is connected to the Bob input/output device (I/O Port) and controls the Bob input/output device (I/O Port) according to the control command of the Bob main control unit (MCU) to turn on the network network connection. /OFF control.

Bob Boot-ROM stores programs and data necessary for booting of Bob's main control unit (MCU).

Bob VPN communicates 1:1 encrypted communication between Alice VPN inside Alice's quantum security USB connected to the network.

Bob debugger (QC-DEBUGGER) receives quantum certificate (QC) through Bob input/output device (I/O Port) and controls network network ON/OFF through Bob input/output device (I/O Port) according to authentication status. do.

The Bob input/output device (I/O Port) is a switch connected to the network network and transmits the data received through the network network ON/OFF control and the network network to the Bob main control unit (MCU) through the Bob system bus.

Bob Security CPU extracts Bob PIN data from Bob PUF Chip and stores it in Alice PUF memory (PUF M/M).

The Bob Security CPU transmits Bob PIN data to the Bob main control unit (MCU).

The Bob Security CPU generates a Bob private key combined with an Alice e-FUSE ID (IDentity Address) in the Bob PIN data and stores it in the Bob Security OTP memory (Security OTP M/M).

The Bob Security CPU generates a Bob public key by encrypting the Bob private key with a random number generated by the Bob pure random number generator (TRNG), and transmits the Bob public key to the Bob main control unit (MCU).

(QUANTUM Communication Channel)

The quantum random number generator (QRNG; QuantumRandomNumberGenerator) is composed of the Alice quantum random number generator (Alice QRNG) of the transmitter that generates random quantum random numbers and the Bob quantum random number generator (Bob QRNG) of the receiver.

QuantumKey Distribution (QKD) is composed of an Alice quantum key distributor (QKD) of a transmitter including a laser and a Bob quantum key distributor (QKD) of a receiver including a single photon detector.

Quantum Platform is Aliec's Quantum Platform and Bob that generate quantum certificates (QC) from quantum random numbers generated by Alice's quantum random number generator (Alice QRNG) and send them through Alice's quantum key distributor (QKD). It is composed of Bob's Quantum Platform, which receives and stores a quantum certificate (QC) through a quantum key distributor (QKD).

A transmitting set The random quantum random number generated by the Alice quantum random number generator (Alice QRNG) is transmitted to the Aliec quantum platform.

The Aliec quantum platform receives the quantum random number, generates a quantum certificate (QC), and transmits it to the integrated control server and the Alice quantum key distributor (QKD).

Alice Quantum Key Distributor (QKD) transmits quantum certificate (QC) to Bob Quantum Key Distributor (QKD) through QUANTUM Communication Channel connected by optical cable.

A receiving set The Bob quantum key distributor (QKD) receives the quantum certificate (QC) and stores it in the Bob quantum platform.

(Non-QUANTUM Communication Channel)

Alice quantum security USB and Bob quantum security USB are connected to the ISP (Internet Service Provider) operator network network that does not form a quantum communication channel.

Alice The main control unit (MCU) inside the quantum security USB boots through the Alice Boot-ROM connected to the Alice system bus, and Alice according to the program stored in the Alice system storage device (System M/M) The serial peripheral interface (SPI Controller) is controlled to control the network network ON/OFF through the Alice input/output device (I/O Port), and the Alice public key received through the Alice security CPU is sent through Alice VPN. Transfer to Bob VPN inside quantum security USB.

Bob The Bob main control unit (MCU) inside the quantum security USB boots through the Bob boot-ROM connected by the Bob system bus, and Bob according to the program stored in the Bob system storage device (System M/M). The serial peripheral interface (SPI Controller) is controlled to control the network network ON/OFF through the Bob input/output device (I/O Port), and the Bob public key received through the Bob security CPU is transferred to Alice through the Bob VPN. Transfer to Alice VPN inside quantum security USB.

Alice's main controller (MCU) inside Alice's quantum security USB uses Bob's public key received through Alice's VPN.<Combined with Alice e-FUSE ID (IDentity Address) to Bob PIN data stored in Alice PUF memory (PUF M/M)> The encrypted Alice KEY is transmitted to Bob VPN inside Bob's quantum security USB through Alice VPN.

Bob's main control unit (MCU) inside Bob's quantum security USB uses the Alice public key received through Bob VPN and combines with Bob e-FUSE ID (IDentity Address) in Alice PIN data stored in Bob PUF memory (PUF M/M)> The encrypted Bob KEY is transmitted to Alice VPN inside Alice's quantum security USB through Bob VPN.

Alice's main control unit (MCU) inside the Alice quantum security USB matches the Alice PIN data decrypted with Alice's private key, Alice PIN data extracted from Alice PUF Chip, and Alice e-FUSE ID (IDentity Address). And, Bob's main control unit (MCU) inside Bob's quantum security USB is the Bob PIN data decrypted with Bob's private key, Bob PIN data extracted from Bob PUF Chip, and Bob e-FUSE ID (IDentity Address). If is matched, the I/O Port is controlled ON between the integrated control server connected to Alice's quantum security USB and the local server connected to Bob's quantum security USB, and connected to the network network log in, and the integrated control server is inside the CPTED TOWER. The video captured by the surveillance camera of is received through the local server.

Alice main control unit (MCU) inside Alice quantum security USB receives quantum certificate (QC) from integrated control server, encrypts it with Bob public key, and transmits it to Bob VPN inside Bob quantum security USB through Alice VPN.

Bob Quantum Security The Bob main control unit (MCU) inside the USB decrypts the quantum certificate (QC) encrypted with the Bob public key received through the Bob VPN with the Bob private key to decrypt the quantum certificate (QC).

The local server transmits the quantum certificate (QC) stored in the Bob quantum platform to the Bob debugger (QC-DEBUGGER) inside the Bob quantum security USB.

Bob Quantum Security The Bob main control unit (MCU) inside the USB transmits the quantum certificate (QC) received from the integrated control server to the Bob debugger (QC-DEBUGGER).

Bob debugger (QC-DEBUGGER) is integrated control by switching the I/O port to the OFF contact point when the quantum certificate (QC) received from Alice's quantum security USB and the quantum certificate (QC) received from the local server do not match. Block the network network connection between the server and the local server.

In one embodiment,

The integrated control server to which the Alice quantum security terminal is connected and the local server to which the Bob quantum security terminal is connected are connected to the network network.

Quantum security terminals consist of MCU, TRNG, PUF, VPN, memory, and network breaker, and are classified into Alice quantum security terminals and Bob quantum security terminals.

Alice PIN data is extracted from the Alice PUF inside the Alice quantum security terminal and stored in the Bob memory inside the Bob quantum security terminal.

Bob extracts the Bob PIN data from the Bob PUF inside the quantum security terminal and stores it in the Alice memory inside the Alice quantum security terminal.

The Alice MCU inside the Alice quantum security terminal extracts the Alice PIN data from the Alice PUF and generates the Alice private key.

Alice TRNG generates a random natural random number and transmits it to Alice MCU.

Alice MCU generates the Alice public key by encrypting the Alice private key with the random natural random number.

The Bob MCU inside the Bob quantum security terminal extracts the Bob PIN data from the Bob PUF and generates the Bob private key.

Bob TRNG generates a random natural random number and transmits it to Bob MCU.

Bob MCU generates the Bob public key by encrypting the Bob private key with the random natural random number.

When the Alice MCU inside the Alice quantum security terminal transmits the Alice public key to Bob VPN through the Alice VPN, the Bob MCU inside the Bob quantum security terminal receives the Alice public key from the Bob VPN.

Bob MCU inside the Bob quantum security terminal transmits the Bob public key to Alice VPN through Bob VPN, and the Alice MCU inside the Alice quantum security terminal receives the Bob public key from Alice VPN.

The Alice MCU inside the Alice quantum security terminal encrypts the Bob PIN data stored in the Alice memory with the Bob public key received through the Alice VPN and transmits it to the Bob VPN inside the Bob quantum security terminal through the Alice VPN.

The Bob MCU inside the Bob quantum security terminal encrypts the Alice PIN data stored in Bob's memory with the Alice public key received through the Bob VPN and transmits it to the Alice VPN inside the Alice quantum security terminal through the Bob VPN.

The Alice MCU inside the Alice quantum security terminal matches the Alice PIN data encrypted with the Alice public key and the Alice PIN data decrypted with the Alice private key and the Alice PIN data extracted from the Alice PUF, and the Bob MCU inside the Bob quantum security terminal If the Bob PIN data encrypted with Bob's public key and the Bob PIN data decrypted with the Bob's private key match the Bob PIN data extracted from the Bob PUF, between the integrated control server connected to the Alice quantum security terminal and the local server connected to the Bob quantum security terminal. Connects the network network log in by controlling the I/O Port ON contact point.

In one embodiment,

The UHD surveillance camera is composed of an optical unit, a driving unit, a main control unit, an image security processing unit, an image analysis unit, a network security processing unit, and an input/output unit.

The terminal unit is a sensor unit 46, AMI 47, at least one switchboard 48, switchboard priority switcher 49, at least one broadcast device 50, broadcast device priority switcher 51, LED horizontal/ It is composed of a security light 52, a dimmer 53, and a terminal 6G SECURITY ENGINE 54, and the optical part is a filter part 10, a filter driving motor 11, a zoom lens 12, a zoom motor 13, and a variable focus. It consists of a lens 14, a focus motor 15, and a focus lens 16.

The driving unit is composed of a motor driving drive 17, a driving unit memory 18, a driving unit control unit 19, an RS-485 20, a manual operation unit 21, and a remote control unit 22.

The main control unit is TRNG(23), System Memory(24), PUF-PIN Memory(25), Security CPU(26), MCU(Machine Control Unit)(27), PUF Chip(28), Security OTP Memory(30), It is composed of a Boot-ROM (31) and SPI (Serial Peripheral Interface) Controller (32).

The image security processing unit is composed of an image sensor unit 33, 5G QUANTUM JUMP ENGINE 34, Quantum Entanglement 36, and Decoy Pulse 37.

The image analysis unit is composed of an image analysis module 38, an object recognition module 39, and a number recognition module 40.

The network security processing unit is composed of DEBUGGER (41), QUANTUM BLOCK CHAIN (42), and 1:N BLOCK CHAIN (43).

Quantum Communication Department Bob 6G QUANTUM SERVER(55), Bob QUANTUM SERVER(56), Bob PUF-QRNG TWIN USB(57), Non-QUANTUM CHANNEL(58), QUANTUM CHANNEL(59), Hybrid-QUANTUM CHANNEL(60), It consists of Master QUANTUM SERVER(61), Alice 6G QUANTUM SERVER(62), Alice QUANTUM SERVER(63), QUANTUM 6G SECURITY ENGINE(64), Alice PUF-QRNG TWIN USB(65), LPWAN communication modem(66).

The filter unit 10 is composed of at least one of an infrared filter, an ultraviolet filter, and an anti-reflective coating filter.

One of the infrared filter, ultraviolet filter, and anti-reflection coating filter is selected by driving the filter driving motor 11.

The zoom motor 13 that drives the zoom lens 12 is driven to change the magnification of the zoom lens.

The focus focus is changed through the variable focus lens 14 and the focus motor 15 driving the focus lens 16.

The drive unit control unit 19 programmed by the input data input from the RS-485 (20) or the manual operation unit (21) or the remote control unit (22) transfers the input data to the drive unit memory (18) and the motor drive drive (17). By controlling the filter driving motor 11, the zoom motor 13, and the focus motor 15, the optical signals are collected and transmitted to the image sensor unit 33.

The internal image sensor of the image sensor unit 33 transmits image data obtained by converting an optical signal into an electrical signal to the 5G QUANTUM JUMP ENGINE 34 and the image analysis module 38.

The image analysis module 38 receives image data, and among the object data extracted from the object through the object recognition module 39 and the object data, in the case of a vehicle, the vehicle number data obtained by textualizing the license plate through the number recognition module 40 is networked. It is transmitted to the security processing unit QUANTUM BLOCK CHAIN (42).

The QUANTUM BLOCK CHAIN 42 compares the vehicle number data of the wanted vehicle received from the 1:N BLOCK CHAIN 43 connected to the block chain, and generates a wanted vehicle event in the case of a wanted vehicle.

The network security processing unit DEBUGGER 41 verifies a boot error when the main control unit Boot-ROM 31 first boots.

Sensing data collected from the sensor unit 46, measurement data measured from the AMI 47, switchboard status information data collected from one or more switchboards 48, voice/video data collected from one or more broadcasting devices 50, The point/off data collected from the LED street/security light 52 is collected by the LPWAN communication modem 66 and transmitted to the terminal 6G SECURITY ENGINE 54.

Terminal 6G SECURITY ENGINE (54) transmits measurement data, switchboard status information, audio/video data, and point/off data to Bob 6G QUANTUM SERVER(55), and Bob 6G QUANTUM SERVER(55) is for Alice 6G QUANTUM SERVER( 62), Alice QUANTUM SERVER (63), Alice PUF-QRNG TWIN USB (65) from any one of the switchboard priority switcher control data or broadcasting device priority switcher control data or dimmer control data to receive the internal terminal of the terminal It transmits to 6G SECURITY ENGINE (54).

The terminal 6G SECURITY ENGINE (54) receives the control data of the switchboard priority switch from Bob 6G QUANTUM SERVER (55) and transmits it to the switchboard priority switcher (49) through the LPWAN communication modem (66) and transfers the priority of broadcasting equipment. The control data is received and transmitted to the broadcasting device priority switch 51 and the dimmer control data is received and transmitted to the dimmer 53, and the switchboard priority switch 49 is transferred according to the switchboard priority switch control data. One or more switchboards 48 are selected and operated by ON/OFF control, and one or more broadcasting devices 50 are selected by ON/OFF control of the broadcasting device priority switch 51 according to the broadcast device priority switch control data. Then, it selectively broadcasts, and dimming the brightness of the LED street/security light 52 through the dimmer 53 according to the dimmer control data.

The main controller MCU(27) is TRNG(23), System Memory(24), PUF-PIN Memory(25), Security CPU(26), MCU(27), PUF Chip(28), Security OTP Memory(30), Controls the Boot-ROM (31) and SPI Controller (32).

The system memory 24 is a system memory in which the main control unit MCU 27 operating OS program is stored.

The MCU 27 controls the security CPU 26 to extract PIN (Personal Identification Number) data from the hardware pin of the PUF Chip 28 and store it in the PUF-PIN Memory 25 and Alice 6G QUANTUM SERVER 62. do.

The MCU 27 controls the TRNG 23 to generate and receive a natural random number and transmits it to the security CPU 26.

The security CPU 26 generates a private key with PIN (Personal Identification Number) data stored in the PUF-PIN Memory 25, and then encrypts the private key with a natural random number generated through the TRNG 23 to generate a public key. It is stored in the Security OTP Memory (30).

Bob 6G QUANTUM SERVER (55) receives PIN (Personal Identification Number) data encrypted with a public key from Alice 6G QUANTUM SERVER (62) through Non-QUANTUM CHANNEL (58) and transmits it to MCU (27) through input/output unit.

When the MCU 27 decrypts with a private key and matches the PIN (Personal Identification Number) data stored in the PUF-PIN Memory 25, the MCU 27 boots the Boot-ROM 31 and controls the SPI Controller 32 to control the UHD surveillance camera. And Alice 6G QUANTUM SERVER(62) and log in network.

Alice QUANTUM SERVER(63) and Bob QUANTUM SERVER(56) are connected by QUANTUM CHANNEL(59).

The QUANTUM 6G SECURITY ENGINE 64 generates a QUANTUM KEY from either BB84 or COW (Coherent One Way) and transmits it to the Alice QUANTUM SERVER 63.

Alice QUANTUM SERVER (63) transmits the QUANTUM KEY to Bob QUANTUM SERVER (56) through QUANTUM CHANNEL (59).

The Bob QUANTUM SERVER (56) transmits to the Quantum Entanglement (36) through the input/output unit through the Bob 6G QUANTUM SERVER (55).

Quantum Entanglement 36 transmits the image to 6G SECURITY ENGINE 35 in case of QUANTUM KEY generated by the COW (Coherent One Way) generation method.

Image 6G SECURITY ENGINE (35) is verified with Decoy Pulse (37) and, in the case of quantum entanglement, receives image data from 5G QUANTUM JUMP ENGINE (34), encrypts the image data with QUANTUM KEY, and uses the input/output part to Bob 6G QUANTUM SERVER. It transmits to Bob QUANTUM SERVER (56) via (55).

Bob QUANTUM SERVER (56) transmits the image data encrypted with the QUANTUM KEY to Alice QUANTUM SERVER (63) through QUANTUM CHANNEL (59).

Alice QUANTUM SERVER (63) decrypts the image data encrypted with the QUANTUM KEY using the QUANTUM KEY received from the 6G SECURITY ENGINE (64).

Alice PUF-QRNG TWIN USB(65) and Bob PUF-QRNG TWIN USB(57) are hybrid-compatible channels consisting of non-quantum communication channels (Non-QUANTUM Communication Channel(58)) and quantum communication channels (QUANTUM Communication Channel(59)). It is connected to the QUANTUM CHANNEL (60).

Alice PUF-QRNG TWIN USB(65) is Alice Boot-ROM, Alice Main Control Unit (MCU), Alice System M/M; System MEMORY, Alice VPN connected by Alice System Bus. (Virtual Private Network), Alice Debugger (QC-DEBUGGER), Alice I/O Port, Alice Serial Peripheral Interface Controller (SPI Controller), Alice True Random Number Generator (TRNG) ), Alice Security CPU (Security Central Processing Unit), Alice Security OTP M/M; Security One Time Password MEMORY, Alice PUF Memory (PUF M/M; Phisycally Unclonable Function MEMORY), Alice PUF It is composed of Chip (Phisycally Unclonable Function Chip).

Alice main controller (MCU) is Alice Boot-ROM, Alice System M/M, Alice VPN (Virtual Private Network), Alice Debugger (QC-DEBUGGER) connected by Alice System Bus , Alice input/output device (I/O Port), Alice serial peripheral device interface (SPI Controller) control.

Alice security CPU (Security CPU) is Alice debugger (QC-DEBUGGER), Alice I/O device (I/O Port), Alice serial peripheral device interface (SPI Controller), Alice pure random number generator (TRNG), Alice security OTP memory (Security OTP M/M), Alice PUF memory (PUF M/M), Alice PUF Chip.

Alice System M/M stores programs and data necessary for Alice's main control unit (MCU).

Alice serial peripheral device interface (SPI Controller) is connected to Alice I/O device (I/O Port) and controls Alice I/O device (I/O Port) according to the control command of Alice main control unit (MCU) to turn on the network network connection. /OFF control.

Alice Boot-ROM stores programs and data necessary for booting of Alice's main control unit (MCU).

Alice VPN performs 1:1 encrypted communication between Bob VPN inside the Bob PUF-QRNG TWIN USB 57 connected to the network network.

Alice debugger (QC-DEBUGGER) receives QC (decoy Qantum Certificate) through Alice input/output device (I/O Port) and turns on/off the network network through Alice input/output device (I/O Port) according to the authentication status. OFF control.

Alice I/O Port is a switch connected to the network network and transmits the data received through the network network ON/OFF control and the network network to the Alice main control unit (MCU) through the Alice system bus.

Alice Security CPU extracts Alice PIN data from Alice PUF Chip and stores it in Bob PUF memory (PUF M/M).

The Alice Security CPU transmits Alice PIN data to the Alice main control unit (MCU).

The Alice security CPU generates an Alice private key from the Alice PIN data and stores it in the Alice security OTP memory (Security OTP M/M).

The Alice security CPU generates the Alice public key by encrypting the Alice private key with a random number generated by the Alice pure random number generator (TRNG) and transmits it to the Alice main control unit (MCU).

Bob PUF-QRNG TWIN USB(57) is a Bob boot ROM, Bob main control unit (MCU), Bob system memory (System M/M; System MEMORY), Bob VPN connected by Bob system bus. (Virtual Private Network), Bob Debugger (QC-DEBUGGER), Bob I/O Device (I/O Port), Bob Serial Peripheral Interface Controller (SPI Controller), Bob True Random Number Generator (TRNG) ), Bob Security CPU (Security Central Processing Unit), Bob Security OTP M/M; Security One Time Password MEMORY, Bob PUF Memory (PUF M/M; Phisycally Unclonable Function MEMORY), Bob PUF It is composed of Chip (Phisycally Unclonable Function Chip).

Bob main control unit (MCU) is Bob Boot-ROM, Bob System M/M, Bob VPN (Virtual Private Network), Bob Debugger (QC-DEBUGGER) connected by Bob System Bus , Bob input/output device (I/O Port), Bob serial peripheral device interface (SPI Controller) control.

Bob's security CPU (Security CPU) includes Bob Debugger (QC-DEBUGGER), Bob I/O Device (I/O Port), Bob Serial Peripheral Device Interface (SPI Controller), Bob Pure Random Number Generator (TRNG), and Bob Security OTP Memory (Security CPU). OTP M/M), Bob PUF memory (PUF M/M), and Bob PUF Chip.

The Bob System M/M stores programs and data necessary for the Bob main control unit (MCU).

The Bob serial peripheral interface (SPI Controller) is connected to the Bob input/output device (I/O Port) and controls the Bob input/output device (I/O Port) according to the control command of the Bob main control unit (MCU) to turn on the network network connection. /OFF control.

Bob Boot-ROM stores programs and data necessary for booting of Bob's main control unit (MCU).

Bob VPN performs 1:1 encrypted communication between Alice VPN inside the Alice PUF-QRNG TWIN USB 65 connected to the network.

Bob debugger (QC-DEBUGGER) receives a quantum certificate (QC) through the Bob input/output device (I/O Port) and turns on/off the network network through the Bob input/output device (I/O Port) according to the authentication status. Control.

The Bob input/output device (I/O Port) is a switch connected to the network network and transmits the data received through the network network ON/OFF control and the network network to the Bob main control unit (MCU) through the Bob system bus.

Bob Security CPU extracts Bob PIN data from Bob PUF Chip and stores it in Alice PUF memory (PUF M/M).

The Bob Security CPU transmits Bob PIN data to the Bob main control unit (MCU).

The Bob Security CPU generates a Bob private key from the Bob PIN data and stores it in the Bob security OTP memory (Security OTP M/M).

The Bob Security CPU generates a Bob public key by encrypting the Bob private key with a random number generated by the Bob pure random number generator (TRNG), and transmits the Bob public key to the Bob main control unit (MCU).

Alice PUF-QRNG TWIN USB (65) and Bob PUF-QRNG TWIN USB (57) are connected to a quantum communication channel (QUANTUM Communication Channel) of Hybrid-QUANTUM CHANNEL (60).

Quantum Random Number Generator (QRNG) consists of an Alice quantum random number generator (Alice QRNG) in the transmitter that generates a random quantum random number and a Bob quantum random number generator (Bob QRNG) in the receiver.

Quantum Key Distribution (QKD) consists of an Alice quantum key distributor (QKD) in the transmitter including a laser and a Bob quantum key distributor (QKD) in the receiver including a single photon detector.

Quantum Platform is the Aliec Quantum Platform, which generates a quantum certificate (QC) with quantum random numbers generated by Alice QRNG and transmits it through Alice's quantum key distributor (QKD). It consists of the Bob Quantum Platform, which receives and stores a Quantum Certificate (QC) through the Bob Quantum Key Distributor (QKD).

A transmitting set The random quantum random number generated by the Alice quantum random number generator (Alice QRNG) is transmitted to the Aliec quantum platform.

The Aliec quantum platform receives the quantum random number, generates a quantum certificate (QC), and transmits it to the Alice master server and the Alice quantum key distributor (QKD).

Alice Quantum Key Distributor (QKD) transmits quantum certificate (QC) to Bob Quantum Key Distributor (QKD) through QUANTUM Communication Channel connected by optical cable.

A receiving set The Bob quantum key distributor (QKD) receives the quantum certificate (QC) and stores it in the Bob quantum platform.

Alice PUF-QRNG TWIN USB(65) and Bob PUF-QRNG TWIN USB(57) are connected to ISP (Internet Service Provider) operator network network that does not form a quantum communication channel, and inside Alice PUF-QRNG TWIN USB(65) Alice's main controller (MCU) boots through the Alice Boot-ROM connected to the Alice system bus, and according to the program stored in the Alice system storage device (System M/M), the Alice serial peripheral device interface ( SPI Controller) to control network network ON/OFF through Alice input/output device (I/O Port), and Alice public key received through Alice security CPU (Security CPU) to Bob PUF-QRNG TWIN USB through Alice VPN (57) It sends to the internal Bob VPN.

Bob PUF-QRNG TWIN The internal Bob main control unit (MCU) inside the USB 57 boots through the Bob Boot-ROM connected by the Bob system bus, and is stored in the Bob system storage device (System M/M). Depending on the stored program, the Bob serial peripheral interface (SPI Controller) is controlled to control the network network ON/OFF through the Bob input/output device (I/O Port), and the Bob public key received through the Bob security CPU is used. It transmits to Alice VPN inside Alice PUF-QRNG TWIN USB(65) through Bob VPN.

Alice PUF-QRNG TWIN USB(65) inside Alice's main control unit (MCU) uses the Bob public key received through Alice VPN to encrypt the Bob PIN data stored in Alice PUF memory (PUF M/M) and uses Alice KEY to use Alice VPN. Through the Bob PUF-QRNG TWIN USB (57), the internal Bob VPN is transmitted.

Bob PUF-QRNG TWIN USB(57)'s internal Bob main control unit (MCU) uses the Alice public key received through Bob VPN to encrypt the Alice PIN data stored in the Bob PUF memory (PUF M/M). Through Alice PUF-QRNG TWIN USB(65), it is transmitted to Alice VPN inside.

Alice PUF-QRNG TWIN USB(65) inside Alice's main controller (MCU) is the Alice PIN data decrypted with Alice's private key and Alice PIN data extracted from Alice PUF Chip and Bob PUF-QRNG Bob's main controller (MCU) inside TWIN USB(57), if the Bob PIN data decrypted with Bob's private key and Bob PIN data extracted from Bob PUF Chip match the Alice KEY encrypted with Bob's public key, Alice PUF-QRNG TWIN USB( Connect the network log in between the Alice master server (Alice MASTER SERVER) connected to 65) and the Bob master server (Bob MASTER SERVER) connected to the Bob PUF-QRNG TWIN USB (57).

Alice PUF-QRNG TWIN The Alice main control unit (MCU) inside the USB(65) receives a quantum certificate (QC) from the Alice MASTER SERVER, encrypts it with Bob's public key, and then uses the Alice VPN to Bob PUF-QRNG TWIN. It transmits to the Bob VPN inside the USB 57.

Bob PUF-QRNG TWIN The Bob main control unit (MCU) inside the USB 57 decrypts the quantum certificate (QC) encrypted with the Bob public key received through the Bob VPN with the Bob private key to decrypt the quantum certificate (QC).

The Bob MASTER SERVER transmits the quantum certificate (QC) stored in the Bob quantum platform to the Bob debugger (QC-DEBUGGER) inside the Bob PUF-QRNG TWIN USB 57.

Bob PUF-QRNG TWIN The Bob main control unit (MCU) inside the USB 57 transmits the quantum certificate (QC) received from the Alice MASTER SERVER to the Bob debugger (QC-DEBUGGER).

Bob debugger (QC-DEBUGGER) is a quantum certificate (QC) received from Alice PUF-QRNG TWIN USB (65) and the quantum certificate (QC) received from the Bob master server (Bob MASTER SERVER) do not match I/ It is characterized by blocking the network network connection between the Alice master server and the Bob master server by controlling the O Port as an OFF contact point.

In one embodiment,

The terminal unit is a sensor unit 46, AMI 47, switchboard 48, QUANTUM 5G AP 49, broadcasting device 50, emergency bell 51, LED street/security light 52, dimmer 53 , Consists of a terminal SINGLE USB (54).

The AMI 47 is an AMI 47 that receives commercial power, measures power usage, and transmits power usage through a Low Power Wide Area Network (LPWAN) communication modem.

The switchboard 48 is a switchboard 48 that supplies power to the LED street/security light 52 via the AMI 47.

The LED streetlight/security light 52 is a dimmer 53, a QUANTUM 5G AP 49, a broadcasting device 50, and an emergency bell 51 that are attached to a post or inside to receive power.

The broadcasting device 50 is a broadcasting device 50 that receives and broadcasts broadcasting data from one of the Master QUANTUM SERVER 61, Alice 6G QUANTUM SERVER 62, or Alice QUANTUM SERVER 63 by the terminal SINGLE USB 54. to be.

When the emergency bell (51) is activated, the emergency bell operation event is transmitted to either Master QUANTUM SERVER (61), Alice 6G QUANTUM SERVER (62) or Alice QUANTUM SERVER (63) through the terminal SINGLE USB (54). )to be.

The sensor unit 46 transmits the data measured through the sensor to either the Master QUANTUM SERVER 61, the Alice 6G QUANTUM SERVER 62, or the Alice QUANTUM SERVER 63 through the terminal SINGLE USB 54 ( 46).

The dimmer 53 is a dimmer 53 that adjusts the brightness of the LED horizontal/security light 52 according to whether or not a human object is detected through the UHD surveillance camera image analysis unit.

The QUANTUM 5G AP (49) receives the video data from the UHD surveillance camera and transmits it to either the Master QUANTUM SERVER (61), the Alice 6G QUANTUM SERVER (62) or the Alice QUANTUM SERVER (63) through the 5G wireless network base station. It is a 5G AP 49.

Terminal SINGLE USB (54) and Master QUANTUM SERVER (61) and Alice 6G QUANTUM SERVER (62) and Alice QUANTUM SERVER (63) store the same symmetric key of the symmetric cryptographic algorithm. It encrypts/decodes bell operation event data, data measured through sensors, measurement data, sensor status information data, audio/video data, point/light data, surveillance camera control data, broadcasting device control data, and dimmer control data.

The UHD surveillance camera is a UHD security CCTV surveillance camera and consists of an optical unit, a driving unit, a main control unit, an image security processing unit, an image analysis unit, a network security processing unit, and an input/output unit.

The optical unit is composed of a filter unit 10, a filter driving motor 11, a zoom lens 12, a zoom motor 13, a variable focus lens 14, a focus motor 15, and a focus lens 16.

The driving unit is composed of a motor driving drive 17, a driving unit memory 18, a driving unit control unit 19, an RS-485 20, a manual operation unit 21, and a remote control unit 22.

The main control unit is TRNG(23), System Memory(24), PUF-PIN Memory(25), Security CPU(26), MCU(Machine Control Unit)(27), PUF Chip(28), Security OTP Memory(30), It is composed of a Boot-ROM (31) and SPI (Serial Peripheral Interface) Controller (32).

The image security processing unit is composed of an image sensor unit 33, 5G QUANTUM JUMP ENGINE 34, Quantum Entanglement 36, and Decoy Pulse 37.

The image analysis unit is composed of an image analysis module 38, an object recognition module 39, and a number recognition module 40.

The network security processing unit is composed of DEBUGGER (41), QUANTUM BLOCK CHAIN (42), and 1:N BLOCK CHAIN (43).

Quantum Communication Department Bob 6G QUANTUM SERVER(55), Bob QUANTUM SERVER(56), Bob PUF-QRNG TWIN USB(57), non-QUANTUM CHANNEL(58), QUANTUM CHANNEL(59), hybrid-QUANTUM CHANNEL(60), It consists of Master QUANTUM SERVER(61), Alice 6G QUANTUM SERVER(62), Alice QUANTUM SERVER(63), QUANTUM 6G SECURITY ENGINE(64), Alice PUF-QRNG TWIN USB(65), LPWAN communication modem(66).

The specific coupling relationship between the components will be described in detail below.

The filter unit 10 is composed of at least one of an infrared filter, an ultraviolet filter, and an anti-reflective coating filter.

One of the infrared filter, ultraviolet filter, and anti-reflection coating filter is selected by driving the filter driving motor 11.

The zoom motor 13 that drives the zoom lens 12 is driven to change the magnification of the zoom lens.

The focus focus is changed through the variable focus lens 14 and the focus motor 15 driving the focus lens 16.

The drive unit control unit 19 programmed by the input data input from the RS-485 (20) or the manual operation unit (21) or the remote control unit (22) transfers the input data to the drive unit memory (18) and the motor drive drive (17). By controlling the filter driving motor 11, the zoom motor 13, and the focus motor 15, the optical signals are collected and transmitted to the image sensor unit 33.

The internal image sensor of the image sensor unit 33 transmits image data obtained by converting an optical signal into an electrical signal to the 5G QUANTUM JUMP ENGINE 34 and the image analysis module 38.

The image analysis module 38 receives image data, and among the object data extracted from the object through the object recognition module 39 and the object data, in the case of a vehicle, the vehicle number data obtained by textualizing the license plate through the number recognition module 40 is networked. It is transmitted to the security processing unit QUANTUM BLOCK CHAIN (42).

The QUANTUM BLOCK CHAIN 42 compares the vehicle number data of the wanted vehicle received from the 1:N BLOCK CHAIN 43 connected to the block chain, and generates a wanted vehicle event in the case of a wanted vehicle.

The network security processing unit DEBUGGER 41 verifies a boot error when the main control unit Boot-ROM 31 first boots.

Sensing data collected from the sensor unit 46, measurement data measured from the AMI 47, switchboard status information data collected from one or more switchboards 48, voice/video data collected from one or more broadcasting devices 50, The point/off data collected from the LED street/security light 52 is collected by the LPWAN communication modem 66 and transmitted to the terminal SINGLE USB 54.

The terminal SINGLE USB(54) transmits measurement data, sensor status data, voice/video data, point/off data to Bob 6G QUANTUM SERVER(55), and Bob 6G QUANTUM SERVER(55) is Alice 6G QUANTUM SERVER(62) , Alice QUANTUM SERVER (63), Alice PUF-QRNG TWIN USB (65) receives UHD surveillance camera control data or broadcasting device control data or dimmer control data from any one of the terminal and transmits it to the internal terminal SINGLE USB 54. .

The terminal SINGLE USB 54 receives UHD surveillance camera control data from the Bob 6G QUANTUM SERVER 55.

The LPWAN communication modem (66) communicates with the LPWAN terminal and the main control unit MCU (27) is TRNG (23), System Memory (24), PUF-PIN Memory (25), Security CPU (26), MCU (27). , PUF Chip(28), Security OTP Memory(30), Boot-ROM(31), SPI Controller(32) are controlled.

The system memory 24 is a system memory in which the main control unit MCU 27 operating OS program is stored.

The MCU 27 controls the security CPU 26 to extract PIN (Personal Identification Number) data from the hardware pin of the PUF Chip 28 and store it in the PUF-PIN Memory 25 and Alice 6G QUANTUM SERVER 62. do.

The MCU 27 controls the TRNG 23 to generate and receive a natural random number and transmits it to the security CPU 26.

The Security CPU 26 formats the PIN (Personal Identification Number) data stored in the PUF-PIN Memory 25 as a random number seed into a fixed-length format function, and uses an asymmetric cryptographic algorithm and an asymmetric private key (PRIVATE). KEY) is generated and then an asymmetric cryptographic algorithm is performed by encrypting an asymmetric private key (PRIVATE KEY) and a beta OR (EX-OR) using the natural random number seed generated through the TRNG 23. It creates a public key and stores it in Security OTP Memory (30) and Alice 6G QUANTUM SERVER (62).

Bob 6G QUANTUM SERVER(55) receives PIN (Personal Identification Number) data encrypted with public key from Alice 6G QUANTUM SERVER(62) through non-QUANTUM CHANNEL(58) and transmits it to MCU(27) through input/output unit. .

When the MCU 27 decrypts with a private key and matches the PIN (Personal Identification Number) data stored in the PUF-PIN Memory 25, the MCU 27 boots the Boot-ROM 31 and controls the SPI Controller 32 to control the UHD surveillance camera. And Alice 6G QUANTUM SERVER (62) and log in (LOG In) network network connection to receive image data from 5G QUANTUM JUMP ENGINE (34) and transmits it to Alice 6G QUANTUM SERVER (62).

The specific coupling relationship between the QUANTUM CHANNEL will be described in detail below.

Alice QUANTUM SERVER(63) and Bob QUANTUM SERVER(56) are connected by QUANTUM CHANNEL(59).

The QUANTUM 6G SECURITY ENGINE 64 generates a QUANTUM KEY from either BB84 or COW (Coherent One Way) and transmits it to the Alice QUANTUM SERVER 63.

Alice QUANTUM SERVER (63) transmits the QUANTUM KEY to Bob QUANTUM SERVER (56) through QUANTUM CHANNEL (59).

The Bob QUANTUM SERVER (56) transmits to the Quantum Entanglement (36) through the input/output unit through the Bob 6G QUANTUM SERVER (55).

Quantum Entanglement 36 transmits the image to 6G SECURITY ENGINE 35 in case of QUANTUM KEY generated by the COW (Coherent One Way) generation method.

Image 6G SECURITY ENGINE (35) is verified with Decoy Pulse (37) and, in the case of quantum entanglement, receives image data from 5G QUANTUM JUMP ENGINE (34), encrypts the image data with QUANTUM KEY, and uses the input/output part to Bob 6G QUANTUM SERVER. It transmits to Bob QUANTUM SERVER (56) via (55).

Bob QUANTUM SERVER (56) transmits the image data encrypted with the QUANTUM KEY to Alice QUANTUM SERVER (63) through QUANTUM CHANNEL (59).

Alice QUANTUM SERVER (63) decrypts the image data encrypted with the QUANTUM KEY using the QUANTUM KEY received from the 6G SECURITY ENGINE (64).

The specific coupling relationship between hybrid-QUANTUM CHANNELs will be described in detail.

Alice PUF-QRNG TWIN USB(65) and Bob PUF-QRNG TWIN USB(57) are hybrid-composed of non-quantum communication channel (Non-QUANTUM Communication Channel(58)) and quantum communication channel(QUANTUM Communication Channel(59)). It is connected to the QUANTUM CHANNEL (60).

Alice PUF-QRNG TWIN USB(65) is Alice Boot-ROM, Alice Main Control Unit (MCU), Alice System M/M; System MEMORY, Alice VPN connected by Alice System Bus. (Virtual Private Network), Alice Debugger (QC-DEBUGGER), Alice I/O Port, Alice Serial Peripheral Interface Controller (SPI Controller), Alice True Random Number Generator (TRNG) ), Alice Security CPU (Security Central Processing Unit), Alice Security OTP M/M; Security One Time Password MEMORY, Alice PUF Memory (PUF M/M; Phisycally Unclonable Function MEMORY), Alice PUF It is composed of Chip (Phisycally Unclonable Function Chip).

Alice main controller (MCU) is Alice Boot-ROM, Alice System M/M, Alice VPN (Virtual Private Network), Alice Debugger (QC-DEBUGGER) connected by Alice System Bus , Alice input/output device (I/O Port), Alice serial peripheral device interface (SPI Controller) control.

Alice security CPU (Security CPU) is Alice debugger (QC-DEBUGGER), Alice I/O device (I/O Port), Alice serial peripheral device interface (SPI Controller), Alice pure random number generator (TRNG), Alice security OTP memory (Security OTP M/M), Alice PUF memory (PUF M/M), Alice PUF Chip.

Alice System M/M stores programs and data necessary for Alice's main control unit (MCU).

Alice serial peripheral device interface (SPI Controller) is connected to Alice I/O device (I/O Port) and controls Alice I/O device (I/O Port) according to the control command of Alice main control unit (MCU) to turn on the network network connection. /OFF control.

Alice Boot-ROM stores programs and data necessary for booting of Alice's main control unit (MCU).

Alice VPN communicates 1:1 encrypted communication between Bob VPN inside the Bob PUF-QRNG TWIN USB 57 connected to the network network.

Alice debugger (QC-DEBUGGER) receives QC (decoy Qantum Certificate) through Alice input/output device (I/O Port) and turns on/off the network network through Alice input/output device (I/O Port) according to the authentication status. OFF control.

Alice I/O Port is a switch connected to the network network and transmits the data received through the network network ON/OFF control and the network network to the Alice main control unit (MCU) through the Alice system bus.

Alice Security CPU extracts Alice PIN data from Alice PUF Chip and stores it in Bob PUF memory (PUF M/M).

The Alice Security CPU transmits Alice PIN data to the Alice main control unit (MCU).

The Alice Security CPU generates an Alice private key using the Alice PIN data as a random number seed, and stores the Alice PIN data in the Alice security OTP memory (Security OTP M/M).

Alice Security CPU is a natural random number seed generated from Alice pure random number generator (TRNG). After generating Alice public key by encrypting Alice private key and beta OR (EX-OR), Alice main control unit ( MCU).

Bob PUF-QRNG TWIN USB(57) is a Bob boot ROM, Bob main control unit (MCU), Bob system memory (System M/M; System MEMORY), Bob VPN connected by Bob system bus. (Virtual Private Network), Bob Debugger (QC-DEBUGGER), Bob I/O Device (I/O Port), Bob Serial Peripheral Interface Controller (SPI Controller), Bob True Random Number Generator (TRNG) ), Bob Security CPU (Security Central Processing Unit), Bob Security OTP M/M; Security One Time Password MEMORY, Bob PUF Memory (PUF M/M; Phisycally Unclonable Function MEMORY), Bob PUF It is composed of Chip (Phisycally Unclonable Function Chip).

Bob main control unit (MCU) is Bob Boot-ROM, Bob System M/M, Bob VPN (Virtual Private Network), Bob Debugger (QC-DEBUGGER) connected by Bob System Bus , Bob input/output device (I/O Port), Bob serial peripheral device interface (SPI Controller) control.

Bob's security CPU (Security CPU) includes Bob Debugger (QC-DEBUGGER), Bob I/O Device (I/O Port), Bob Serial Peripheral Device Interface (SPI Controller), Bob Pure Random Number Generator (TRNG), and Bob Security OTP Memory (Security CPU). OTP M/M), Bob PUF memory (PUF M/M), and Bob PUF Chip.

The Bob System M/M stores programs and data necessary for the Bob main control unit (MCU).

The Bob serial peripheral interface (SPI Controller) is connected to the Bob input/output device (I/O Port) and controls the Bob input/output device (I/O Port) according to the control command of the Bob main control unit (MCU) to turn on the network network connection. /OFF control.

Bob Boot-ROM stores programs and data necessary for booting of Bob's main control unit (MCU).

Bob VPN performs 1:1 encrypted communication between Alice VPN inside the Alice PUF-QRNG TWIN USB 65 connected to the network.

Bob debugger (QC-DEBUGGER) receives quantum certificate (QC) through Bob input/output device (I/O Port) and turns on/off the network network through Bob input/output device (I/O Port) according to the authentication status. Control.

The Bob input/output device (I/O Port) is a switch connected to the network network and transmits the data received through the network network ON/OFF control and the network network to the Bob main control unit (MCU) through the Bob system bus.

Bob Security CPU extracts Bob PIN data from Bob PUF Chip and stores it in Alice PUF memory (PUF M/M).

The Bob Security CPU transmits Bob PIN data to the Bob main control unit (MCU).

The Bob Security CPU generates a Bob private key using the Bob PIN data as a random number seed, and stores the Bob PIN data in a Bob security OTP memory (Security OTP M/M).

Bob's Security CPU is a natural random number seed generated from Bob's pure random number generator (TRNG). After generating Bob's public key by encrypting the Bob private key and beta OR (EX-OR), the Bob main control unit ( MCU).

Among the hybrid-QUANTUM CHANNELs, specific coupling relationships in the QUANTUM Communication Channel will be described in detail.

Alice PUF-QRNG TWIN USB (65) and Bob PUF-QRNG TWIN USB (57) are connected to the QUANTUM Communication Channel among hybrid-QUANTUM CHANNEL (60).

Quantum Random Number Generator (QRNG) consists of an Alice quantum random number generator (Alice QRNG) of the transmitter that generates a random quantum random number and a Bob quantum random number generator (Bob QRNG) of the receiver.

Quantum Key Distribution (QKD) consists of an Alice quantum key distributor (QKD) in the transmitter including a laser and a Bob quantum key distributor (QKD) in the receiver including a single photon detector.

Quantum Platform is the Aliec Quantum Platform, which generates a quantum certificate (QC) from quantum random numbers generated by Alice's quantum random number generator (Alice QRNG) and transmits it through the Alice quantum key distributor (QKD). It consists of the Bob Quantum Platform, which receives and stores a Quantum Certificate (QC) through the Bob Quantum Key Distributor (QKD).

A transmitting set The random quantum random number generated by the Alice quantum random number generator (Alice QRNG) is transmitted to the Aliec quantum platform.

The Aliec quantum platform receives the quantum random number, generates a quantum certificate (QC), and transmits it to the Alice master server and the Alice quantum key distributor (QKD).

Alice Quantum Key Distributor (QKD) transmits quantum certificate (QC) to Bob Quantum Key Distributor (QKD) through QUANTUM Communication Channel connected by optical cable.

A receiving set The Bob quantum key distributor (QKD) receives the quantum certificate (QC) and stores it in the Bob quantum platform.

Among the hybrid-QUANTUM CHANNELs, specific coupling relationships in the non-QUANTUM Communication Channel will be described in detail.

Alice PUF-QRNG TWIN USB 65 and Bob PUF-QRNG TWIN USB 57 are connected to an ISP (Internet Service Provider) operator network network that does not form a quantum communication channel.

Alice PUF-QRNG TWIN The main control unit (MCU) inside the USB(65) boots through the Alice Boot-ROM connected to the Alice system bus, and stores it in the Alice system storage device (System M/M). Depending on the stored program, Alice's serial peripheral interface (SPI Controller) is controlled to control the network network ON/OFF through the Alice input/output device (I/O Port), and the Alice public key received through the Alice security CPU Sends to Bob VPN inside Bob PUF-QRNG TWIN USB 57 through Alice VPN.

Bob PUF-QRNG TWIN The internal Bob main control unit (MCU) inside the USB 57 boots through the Bob Boot-ROM connected by the Bob system bus, and is stored in the Bob system storage device (System M/M). Depending on the stored program, the Bob serial peripheral interface (SPI Controller) is controlled to control the network network ON/OFF through the Bob input/output device (I/O Port), and the Bob public key received through the Bob security CPU is used. It transmits to Alice VPN inside Alice PUF-QRNG TWIN USB(65) through Bob VPN.

Alice PUF-QRNG TWIN USB(65) inside Alice's main control unit (MCU) uses the Bob public key received through Alice VPN to encrypt the Bob PIN data stored in Alice PUF memory (PUF M/M) and uses Alice KEY to use Alice VPN. Through the Bob PUF-QRNG TWIN USB 57, it is transmitted to the Bob VPN inside.

Bob PUF-QRNG TWIN USB(57)'s internal Bob main control unit (MCU) uses the Alice public key received through Bob VPN to encrypt the Alice PIN data stored in the Bob PUF memory (PUF M/M). Through Alice PUF-QRNG TWIN USB(65), it is transmitted to Alice VPN inside.

Alice PUF-QRNG TWIN USB(65) inside the Alice main control unit (MCU) is the Alice PIN data decrypted with Alice's private key and the Alice PIN data extracted from the Alice PUF Chip, and Bob PUF- The Bob main control unit (MCU) inside the QRNG TWIN USB(57) is the Alice PUF-QRNG TWIN USB if the Bob PIN data decrypted with Bob's private key and the Bob PIN data extracted from the Bob PUF Chip match the Alice KEY encrypted with the Bob public key. Connect the network log in between the Alice master server (Alice MASTER SERVER) connected to (65) and the Bob master server (Bob MASTER SERVER) connected to the Bob PUF-QRNG TWIN USB (57).

In the state of network login (LOG In) connection, Alice main control unit (MCU) inside Alice PUF-QRNG TWIN USB(65) receives quantum certificate (QC) from Alice MASTER SERVER and encrypts it with Bob's public key. After that, it transmits to Bob VPN inside Bob PUF-QRNG TWIN USB(57) through Alice VPN.

Bob PUF-QRNG TWIN The Bob main control unit (MCU) inside the USB 57 decrypts the quantum certificate (QC) encrypted with the Bob public key received through the Bob VPN with the Bob private key to decrypt the quantum certificate (QC).

The Bob MASTER SERVER transmits the quantum certificate (QC) stored in the Bob quantum platform to the Bob debugger (QC-DEBUGGER) inside the Bob PUF-QRNG TWIN USB 57.

Bob PUF-QRNG TWIN The Bob main control unit (MCU) inside the USB 57 transmits the quantum certificate (QC) received from the Alice MASTER SERVER to the Bob debugger (QC-DEBUGGER).

Bob debugger (QC-DEBUGGER) is a quantum certificate (QC) received from Alice PUF-QRNG TWIN USB (65) and the quantum certificate (QC) received from the Bob master server (Bob MASTER SERVER) do not match I/ A hybrid quantum communication blocker including a switchboard, broadcasting device, street/security, security CCTV surveillance camera terminal, characterized in that it blocks the network network connection between the Alice master server and the Bob master server by controlling the O Port OFF contact point. It is a network system.

In one embodiment,

It is composed of QUANTUM COLLABO including quantum random number generator, autonomous vehicle including surveillance camera and 5G communication modem, QUANTUM 5G AP (Access Point), Alice 6G QUANTUM SERVER, and Bob 6G QUANTUM SERVER.

In the network configuration, the wired quantum network is composed of one of QUANTUM CHANNEL, non-QUANTUM CHANNEL, and hybrid-QUANTUM CHANNEL. In addition, a 5G wireless network is additionally configured as a redundant redundant network.

Quantum Key Distribution (QKD) that selectively connects the wired quantum network's own network and the 5G wireless network network of an ISP provider, and encrypts/decrypts with a QUANTUM KEY (private key/public key) using PUF and QRNG SoC chips according to data characteristics The TLS (Transport Layer Security) system will be described in detail below as its main features.

The core component, QUANTUM COLLABO (QUANTUM encrypt Transport Layer Security protocol DEVICE), is a Eve quantum random number generator, 5G QUANTUM JUMP ENGINE, Boot Mode S/W (SWITCH), JTAG Connector, USB Connector, ETHERNET Connector, RESET S/W ( SWITCH), LED, and I/O Pin Header.

In addition, the 5G QUANTUM JUMP ENGINE inside QUANTUM COLLABO is characterized by including System Memory, PUF-PIN Memory, Security CPU, MCU, eve-PUF Chip, Security OTP Memory, Boot-ROM, and SPI Controller.

The core component, the Eve quantum random number generator, is composed of a random number source generator, a quantum detection diode, a quantum random pulse generator, a quantum random number control unit, and an input/output unit.

The detailed components and the detailed coupling relationship will be described in detail below.

The random number source generator emits quantum particles from one or more of LED (Light-Emitting Diode), LD (Laser Diode), radioactive isotope, transistor noise, and thermal noise.

The quantum detection diode detects quantum particles generated from the random number source generator.

The quantum random pulse generator detects a quantum particle event from the quantum detection diode and generates a random pulse corresponding to the detection of the quantum particle.

The quantum random number control unit generates a quantum random number from a random pulse random number source generated through the quantum random pulse generator and transmits it to the 5G QUANTUM JUMP ENGINE internal security CPU.

Boot Mode S/W (SWITCH) is a Boot Mode S/W that boots the Boot-ROM through the SPI Controller inside the 5G QUANTUM JUMP ENGINE, receives video data from surveillance cameras encrypted with the Alice QUANTUM public key, and transmits it to the 5G communication modem. SWITCH).

JTAG Connector is a JTAG (Joint Test Action Group) connector that transmits output data or receives input data through serial communication for digital input/output and inputs and outputs autonomous vehicle operation programs.

ETHERNET Connector is an input/output port that communicates with the autonomous vehicle and ETHERNET.

RESET S/W (SWITCH) is RESET S/W (SWITCH) that initializes QUANTUM COLLABO.

It is composed of power supply indication LED, I/O Pin Header and USB Connector that communicates with each part of QUANTUM COLLABO.

Focusing on the network network, the relationship between the components and the system will be described in detail.

It consists of a surveillance camera mounted inside an autonomous vehicle, QUANTUM COLLABO, a 5G communication modem, and a QUANTUM 5G AP installed on the road outside the autonomous vehicle, and a Bob 6G QUANTUM SERVER. It is composed of Alice 6G QUANTUM SERVER connected to wired quantum network network and 5G wireless network network composed of any one.

The internal MCU of 5G QUANTUM JUMP ENGINE controls System Memory, PUF-PIN Memory, Security CPU, eve-PUF Chip, Security OTP Memory, Boot-ROM, and SPI Controller.

System memory is the system memory in which the MCU operating OS program is stored.

The MCU controls the security CPU, extracts Eve PIN data from the hardware pin of the eve-PUF Chip, stores it in PUF-PIN Memory and Alice 6G QUANTUM SERVER, and encrypts the Eve PIN data as a random seed by encrypting the Eve QUANTUM personal Create a key (PRIVATE KEY).

The format function generates an asymmetric cryptographic algorithm private key (PRIVATE KEY) using various known methods such as a fixed-length hash function and a functional formula.

The MCU receives the quantum random number from the Eve quantum random number generator and sends it to the Security CPU.

Security CPU generates the Eve QUANTUM public key (PUBLIC KEY) by performing beta-OR (EX-OR) encryption operation on the Eve QUANTUM private key stored in the PUF-PIN Memory with the quantum random number seed, and the quantum random number seed ( Seed) and Eve QUANTUM public key are stored in Security OTP Memory and Eve QUANTUM public key (PUBLIC KEY) is transmitted to 5G communication modem.

The beta-OR (EX-OR) cryptographic operation uses a variety of known methods such as operators (EX-OR, EX-AND, etc.), fixed-length hash functions, and functional expressions. KEY).

The 5G communication modem transmits to the Alice 6G QUANTUM SERVER through the 5G base station inside the 5G wireless network.

Alice 6G QUANTUM SERVER is composed of Alice quantum random number generator and Alice PUF Chip inside.

Alice 6G QUANTUM SERVER generates Alice QUANTUM private key by extracting Alice PIN data from hardware pin of Alice PUF Chip, storing it in QUANTUM COLLABO, and encrypting Alice PIN data with a random number seed by format function.

The Alice QUANTUM public key is generated by performing the quantum random number seed generated by the Alice quantum random number generator and the Alice QUANTUM private key and beta-OR (EX-OR) encryption.

The beta-OR (EX-OR) cryptographic operation uses a variety of known methods such as operators (EX-OR, EX-AND, etc.), fixed-length hash functions, and functional expressions. KEY).

Alice 6G QUANTUM SERVER encrypts the Eve PIN data and Alice QUANTUM public key stored inside with the Eve QUANTUM public key received through the 5G wireless network and retransmits it to the QUANTUM COLLABO through the 5G wireless network.

The internal MCU of QUANTUM COLLABO uses the Eve QUANTUM public key encrypted Eve PIN data and Alice QUANTUM public key as the Eve QUANTUM private key to decrypt the quantum random number stored in the Security OTP Memory with the Seed and Beta OR (EX-OR) decryption. It decrypts and generates public key and Eve PIN data.

If the decrypted Eve PIN data matches the Eve PIN data extracted from the eve-PUF Chip, the MCU boots the Boot-ROM through the SPI Controller and encrypts the video data from the surveillance camera with the Alice QUANTUM public key. To send.

The 5G communication modem transmits video data from surveillance cameras encrypted with the Alice QUANTUM public key to the QUANTUM 5G AP through a 5G LAN (Local Area Network) cell network capable of communication, but if communication with the QUANTUM 5G AP is not possible, the 5G wireless network network 5G base station To send.

When Bob 6G QUANTUM SERVER receives video data from surveillance cameras encrypted with Alice QUANTUM public key from QUANTUM 5G AP, Alice 6G QUANTUM through a wired quantum network consisting of one of QUANTUM CHANNEL, non-QUANTUM CHANNEL, and hybrid-QUANTUM CHANNEL Transfer to SERVER.

Alice 6G QUANTUM SERVER is SMART QUANTUM G-Cloud using QUANTUM 5G AP that receives video data from surveillance cameras encrypted with Alice QUANTUM public key from at least one of wired quantum network and 5G wireless network and decrypts with Alice QUANTUM private key. It is a self-driving car 5G self-governing closed self-network system.

In one embodiment,

The autonomous vehicle is composed of QUANTUM COLLABO and surveillance cameras and communication modems.

The QUANTUM AP (Access Point), Alice QUANTUM SERVER, and Bob QUANTUM SERVER are configured outside the autonomous vehicle.

It features a QKD (Quantum Key Distribution) TLS (Transport Layer Security) system that selectively connects the wired own network, the wireless network, and the wireless network of the communication service provider and communicates with the QUANTUM key for encryption/decryption.

As the main component,

It consists of a surveillance camera, QUANTUM COLLABO, and a communication modem mounted inside an autonomous vehicle.

It is composed of QUANTUM AP and Bob QUANTUM SERVER installed outside the autonomous vehicle.

The network is composed of a wired private network, a wireless private network, and the Alice QUANTUM SERVER connected to a wired/wireless network composed of a wireless network of a communication service provider.

QUANTUM COLLABO consists of Eve quantum random number generator and QUANTUM JUMP ENGINE.

The Eve quantum random number generator inside QUANTUM COLLABO generates a quantum random number and sends it to the security CPU inside the QUANTUM JUMP ENGINE.

QUANTUM JUMP ENGINE is composed of System Memory, PUF-PIN Memory, Security CPU, MCU, eve-PUF Chip, Security OTP Memory, Boot-ROM, and SPI Controller.

The internal MCU of QUANTUM JUMP ENGINE controls System Memory, PUF-PIN Memory, Security CPU, eve-PUF Chip, Security OTP Memory, Boot-ROM, and SPI Controller.

System memory is the system memory in which the MCU operating OS program is stored.

The MCU controls the security CPU to extract Eve PIN data from the hardware pin of the eve-PUF Chip, stores it in the PUF-PIN Memory and Alice QUANTUM SERVER, and generates the Eve QUANTUM private key as a random number seed.

The MCU receives the quantum random number from the Eve quantum random number generator and sends it to the Security CPU.

Security CPU generates Eve QUANTUM public key by encrypting the Eve QUANTUM private key stored in PUF-PIN Memory with the quantum random number seed, stores the Eve QUANTUM public key in Security OTP Memory, and communicates the Eve QUANTUM public key. Transmit to modem.

The communication modem transmits the Eve QUANTUM public key to the Alice QUANTUM SERVER through the wireless base station inside the wireless network network of the communication service provider.

Alice QUANTUM SERVER is composed of Alice quantum random number generator and Alice PUF Chip inside.

Alice QUANTUM SERVER extracts Alice PIN data from the hardware pin of Alice PUF Chip, stores it in QUANTUM COLLABO, generates Alice QUANTUM private key as a random number seed, and generates quantum random number from Alice quantum random number generator. The Alice QUANTUM public key is generated by encrypting the Alice QUANTUM private key with a quantum random number seed.

Alice QUANTUM SERVER encrypts Eve PIN data and Alice QUANTUM public key stored internally with the Eve QUANTUM public key received through the wireless network network of the telecommunication service provider, and retransmits it to QUANTUM COLLABO through the wireless network network of the communication service provider, and the internal MCU of the QUANTUM COLLABO is Eve. The Eve PIN data encrypted with the QUANTUM public key and the Alice QUANTUM public key are decrypted with the Eve QUANTUM private key to decrypt and generate the Alice QUANTUM public key and Eve PIN data, and the decrypted Eve PIN data and Eve extracted from the eve-PUF Chip If it matches the PIN data,

The MCU boots the Boot-ROM through the SPI Controller, encrypts the video data from the surveillance camera with the Alice QUANTUM public key, and transmits it to the communication modem.

The communication modem transmits video data from surveillance cameras encrypted with the Alice QUANTUM public key to the communicationable QUANTUM AP, but if communication with the QUANTUM AP is not possible, it transmits it to the wireless base station of the wireless network network of the communication service provider.

When Bob QUANTUM SERVER receives video data from surveillance cameras encrypted with Alice QUANTUM public key from QUANTUM AP, it transmits it to Alice QUANTUM SERVER through wired network.

Alice QUANTUM SERVER is a SMART QUANTUM G-Cloud autonomous vehicle using QUANTUM AP that receives video data from surveillance cameras encrypted with the Alice QUANTUM public key from at least one of a wired network and a wireless network, and decrypts it with the Alice QUANTUM private key. It is a group closed self-network system.

In one embodiment,

It is basically composed of QUANTUM COLLABO, surveillance camera, communication modem, QUANTUM AP (Access Point), Alice QUANTUM SERVER, and Bob QUANTUM SERVER.

QUANTUM COLLABO consists of Eve quantum random number generator and QUANTUM JUMP ENGINE.

The Eve quantum random number generator inside QUANTUM COLLABO generates a quantum random number and sends it to the security CPU inside the QUANTUM JUMP ENGINE.

QUANTUM JUMP ENGINE is composed of System Memory, PUF-PIN Memory, Security CPU, MCU, eve-PUF Chip, Security OTP Memory, Boot-ROM, and SPI Controller.

The internal MCU of QUANTUM JUMP ENGINE controls System Memory, PUF-PIN Memory, Security CPU, eve-PUF Chip, Security OTP Memory, Boot-ROM, and SPI Controller.

System memory is the system memory in which the MCU operating OS program is stored.

The MCU controls the security CPU to extract the Eve PIN data from the hardware pin of the eve-PUF Chip, stores it in the PUF-PIN Memory and Alice QUANTUM SERVER, and generates the Eve QUANTUM private key as a seed.

The MCU receives the quantum random number from the Eve quantum random number generator and sends it to the Security CPU.

The Security CPU generates the Eve QUANTUM public key by encrypting the Eve QUANTUM private key stored in the PUF-PIN Memory with the quantum random number, and stores the Eve QUANTUM public key in the Security OTP Memory and transmits it to the communication modem.

The communication modem transmits the Eve QUANTUM public key to the Alice QUANTUM SERVER through the wireless network of the communication service provider.

Alice QUANTUM SERVER is composed of Alice quantum random number generator and Alice PUF Chip inside. Alice QUANTUM SERVER extracts Alice PIN data from hardware pin of Alice PUF Chip, stores it in QUANTUM COLLABO, and seed Alice PIN data Asymmetric cryptographic algorithm Generates Alice QUANTUM private key and encrypts Alice QUANTUM private key with a known asymmetric cryptographic algorithm with a quantum random number generated from the Alice quantum random number generator. To generate the Alice QUANTUM public key.

Alice QUANTUM SERVER encrypts Eve PIN data and Alice QUANTUM public key stored internally with the Eve QUANTUM public key received through the wireless network of the telecommunication service provider, and retransmits it to QUANTUM COLLABO through the wireless network of the telecommunication service provider.

The internal MCU of QUANTUM COLLABO decrypts and calculates the Eve PIN data encrypted with the Eve QUANTUM public key and the Alice QUANTUM public key with the asymmetric cryptographic algorithm Eve QUANTUM private key to decrypt and generate the Alice QUANTUM public key and Eve PIN data.

If the decrypted Eve PIN data matches the Eve PIN data extracted from the eve-PUF Chip, the MCU boots the Boot-ROM through the SPI Controller, encrypts the surveillance camera image data with the Alice QUANTUM public key, and sends it to the communication modem. send.

The communication modem transmits video data from surveillance cameras encrypted with the Alice QUANTUM public key to the Bob QUANTUM SERVER through the wireless private network QUANTUM AP. send.

When Bob QUANTUM SERVER receives video data from surveillance cameras encrypted with Alice QUANTUM public key from QUANTUM AP, it transmits it to Alice QUANTUM SERVER through wired self-network.

Alice QUANTUM SERVER is a SMART QUANTUM G-Cloud closed private network using QUANTUM AP that receives video data from surveillance cameras encrypted with Alice QUANTUM's public key from at least one of the wired private network and the wireless network of the communication service provider, and decrypts it with the Alice QUANTUM private key. System.

In one embodiment,

It is composed of QUANTUM COLLABO, surveillance camera, communication modem, QUANTUM AP (Access Point), Alice QUANTUM SERVER, and Bob QUANTUM SERVER.

QUANTUM COLLABO consists of Eve quantum random number generator and QUANTUM JUMP ENGINE.

The Eve quantum random number generator inside QUANTUM COLLABO generates a quantum random number and sends it to the security CPU inside the QUANTUM JUMP ENGINE.

QUANTUM JUMP ENGINE is composed of System Memory, NFC Memory, Security CPU, MCU, eve-NFC Chip, Security OTP Memory, Boot-ROM, and SPI Controller.

The internal MCU of QUANTUM JUMP ENGINE controls System Memory, NFC Memory, Security CPU, eve-NFC Chip, Security OTP Memory, Boot-ROM, and SPI Controller.

System memory is the system memory in which the MCU operating OS program is stored.

The MCU controls the security CPU to extract Eve NFC data from the eve-NFC Chip (or eve-NFC card, eve-NFC sticker), save it as NFC memory and random number seed in Alice QUANTUM SERVER, and then seed the Eve NFC data. Generate the Eve QUANTUM private key.

The MCU receives the quantum random number from the Eve quantum random number generator and sends it to the Security CPU.

The Security CPU encrypts the Eve QUANTUM private key stored in the NFC memory with the quantum random number to generate the Eve QUANTUM public key, stores the Eve QUANTUM public key in the Security OTP Memory, and transmits it to the communication modem.

The communication modem transmits the Eve QUANTUM public key to the Alice QUANTUM SERVER through the wireless network of the communication service provider.

Alice QUANTUM SERVER is composed of Alice quantum random number generator and Alice NFC Chip inside.

Alice QUANTUM SERVER extracts Alice NFC data from Alice NFC Chip, stores it in QUANTUM COLLABO, generates Alice QUANTUM private key with Alice NFC data, and encrypts Alice QUANTUM private key with a quantum random number generated from the Alice quantum random number generator. To generate the Alice QUANTUM public key.

Alice QUANTUM SERVER encrypts the Eve NFC data and Alice QUANTUM public key stored inside with the Eve QUANTUM public key received through the wireless network of the telecommunication service provider and retransmits it to the QUANTUM COLLABO through the wireless network of the telecommunication service provider.

The internal MCU of QUANTUM COLLABO decrypts and calculates the Eve NFC data encrypted with the Eve QUANTUM public key and the Alice QUANTUM public key with the Eve QUANTUM private key to decrypt and generate the Alice QUANTUM public key and Eve NFC data.

If the decrypted Eve NFC data matches the Eve NFC data extracted from the eve-NFC Chip, the MCU boots the Boot-ROM through the SPI Controller, encrypts the surveillance camera image data with the Alice QUANTUM public key, and sends it to the communication modem. send.

The communication modem transmits video data from surveillance cameras encrypted with the Alice QUANTUM public key to the Bob QUANTUM SERVER through the wireless private network QUANTUM AP, but if communication with the wireless private network QUANTUM AP is not possible, it is sent to the Alice QUANTUM SERVER through the wireless network of the communication service provider. send.

When Bob QUANTUM SERVER receives video data from surveillance cameras encrypted with Alice QUANTUM public key from QUANTUM AP, it transmits it to Alice QUANTUM SERVER through wired self-network.

Alice QUANTUM SERVER is a SMART QUANTUM G-Cloud closed private network using QUANTUM AP that receives video data from surveillance cameras encrypted with Alice QUANTUM's public key from at least one of the wired private network and the wireless network of the communication service provider, and decrypts it with the Alice QUANTUM private key. System.

In one embodiment,

It is basically composed of terminal, QUANTUM AP (Access Point), Alice QUANTUM SERVER, and Bob QUANTUM SERVER.

The terminal part is configured to include the QUANTUM COLLABO, the self-contained wireless network communication modem, and the communication service provider communication modem in detail.

The terminal part QUANTUM COLLABO is connected to the Alice QUANTUM SERVER and the network network through the wireless network of the communication service provider through the communication modem of the communication service provider.

In addition, the QUANTUM COLLABO is connected to the Alice QUANTUM SERVER, which is connected to the self-wired network, and the network network through the Bob QUANTUM SERVER, which is connected to the QUANTUM AP and its own wireless network through its own wireless network communication modem.

QUANTUM COLLABO consists of Eve quantum random number generator and QUANTUM JUMP ENGINE.

The Eve quantum random number generator inside QUANTUM COLLABO generates a quantum random number and sends it to the security CPU inside the QUANTUM JUMP ENGINE.

QUANTUM JUMP ENGINE is composed of System Memory, PUF-PIN Memory, Security CPU, MCU, eve-PUF, Security OTP Memory, Network Switch, and SPI Controller.

The internal MCU of QUANTUM JUMP ENGINE controls System Memory, PUF-PIN Memory, Security CPU, eve-PUF, Security OTP Memory, Network Switch, and SPI Controller.

System memory is the system memory in which the MCU operating OS program is stored.

The MCU controls the security CPU, extracts Eve PIN data from eve-PUF, stores it in PUF-PIN Memory and Alice QUANTUM SERVER, and generates Eve QUANTUM private key as a random number seed.

The MCU receives the quantum random number from the Eve quantum random number generator and sends it to the Security CPU.

Security CPU generates Eve QUANTUM public key by encrypting the Eve QUANTUM private key stored in PUF-PIN Memory with the quantum random number seed, stores the Eve QUANTUM public key in Security OTP Memory, and communicates the Eve QUANTUM public key. It is transmitted to the operator's communication modem.

The communication service provider's communication modem transmits the Eve QUANTUM public key to the Alice QUANTUM SERVER through the service provider's wireless network.

Alice QUANTUM SERVER is composed of Alice quantum random number generator and Alice PUF inside.

Alice QUANTUM SERVER extracts Alice PIN data from Alice PUF, stores it in QUANTUM COLLABO, generates Alice QUANTUM private key as a random number seed, and generates a quantum random number from Alice's quantum random number generator. Seed) encrypts the Alice QUANTUM private key to generate the Alice QUANTUM public key.

Alice QUANTUM SERVER encrypts Eve PIN data and Alice QUANTUM public key stored inside with the Eve QUANTUM public key received through the wireless network of the telecommunication service provider, and retransmits it to the QUANTUM COLLABO through the wireless network of the telecommunication service provider or the Alice QUANTUM SERVER transmits the wireless network of the telecommunication service provider. The Eve QUANTUM public key received through the Eve QUANTUM public key encrypts the internally stored Eve PIN data and Alice QUANTUM public key and transmits it to the Bob QUANTUM SERVER through its own wired network. QUANTUM COLLABO receives through wireless network communication modem.

QUANTUM COLLABO receives Eve PIN data encrypted with Eve QUANTUM public key and Alice QUANTUM public key from either the wireless network of the communication service provider or its own wired network, and decrypts the Alice QUANTUM public key and Eve PIN data by decrypting with the Eve QUANTUM private key. If the decrypted Eve PIN data and Eve PIN data extracted from eve-PUF match,

The MCU converts the network switch ON point through the SPI controller, encrypts the data with the Alice QUANTUM public key, and transmits it to the wireless network communication modem and the communication service provider communication modem.

The self-contained wireless network communication modem transmits the data encrypted with the Alice QUANTUM public key to the communicationable QUANTUM AP, but if communication with the QUANTUM AP is not possible, it transmits it to the communication service provider's wireless network through the communication service provider's communication modem.

When Bob QUANTUM SERVER receives data encrypted with Alice QUANTUM public key from QUANTUM AP, it transmits it to Alice QUANTUM SERVER through wired network.

Alice QUANTUM SERVER is a SMART QUANTUM G-Cloud closed self-network system using QUANTUM AP that receives data encrypted with Alice QUANTUM public key from one or more of its own wired network and wireless network of communication service provider and decrypts it with Alice QUANTUM private key.

In one embodiment,

Surveillance Camera (Closed Circuit Camera, or Security Surveillance Camera, Security Surveillance Camera, Surveillance Camera), QUANTUM COLLABO, Alice QUANTUM SERVER, Bob QUANTUM SERVER, QUANTUM DUAL AP (Access Point), Network Separation Server, Quantum Smartphone, NFC It is composed of tag, police-APP, SK Telecom communication service provider LoRA wireless network network (communication service provider wireless network network), SK Telecom quantum authentication server, and wired/wireless own network.

Alice QUANTUM SERVER generates the first quantum random number through the Alice Quantum Random Number Generator (QRNG) inside, and generates the QUANTUM symmetric key of the symmetric cryptographic algorithm, and the PUF-PIN Memory and Alice inside the QUANTUM COLLABO It is characterized in that, after logging in to the network network between QUANTUM COLLABO and Alice QUANTUM SERVER by storing it in the QUANTUM SERVER, the image data captured by the surveillance camera (surveillance camera) is encrypted/decrypted data communication with the QUANTUM symmetric key.

(Integrated Crime Prevention Center)

Inside the integrated security center, the Alice QUANTUM SERVER is connected to the SK Telecom quantum authentication server through any of the 3G, 4G, 5G, and LoRA wireless network networks of SK Telecom operators.

The network separation server inside the integrated security center consists of an internal network main board and an external network main board, and the internal network main board receives image data from Alice QUANTUM SERVER and transmits only the image data in one direction of the external network main board.

(School Zone Control Unit)

The closed enclosure is composed of a remote locking device and a door opening sensor, and the detection data of the door opening sensor of the closed enclosure is transmitted to the Alice QUANTUM SERVER through the Bob QUANTUM SERVER, and the Alice QUANTUM SERVER controls the remote locking device. Thus, the closed enclosure is opened and controlled remotely.

It is composed of Bob QUANTUM SERVER, CC certified VPN, and QUANTUM DUAL AP (Access Point) inside the closed enclosure. Bob QUANTUM SERVER uses non-QUANTUM CHANNEL, BB84 QUANTUM CHANNEL, PUF-QRNG TWIN USB through CC certified VPN. It is connected to Alice QUANTUM SERVER through any one of the hybrid-QUANTUM CHANNELs through the wired network network.

(School zone terminal)

The terminal part is composed of a closed circuit camera, a multi-communication modem, and a QUANTUM COLLABO.

The surveillance camera is a surveillance camera equipped with a security chip of either PUF-TRNG SoC (System on Chip) or eFUSE-TRNG SoC (System on Chip).

QUANTUM COLLABO controls surveillance cameras. \QUANTUM COLLABO is to selectively select unlicensed frequency closed radio network or licensed frequency SK Telecom's LoRA wireless network network through QUANTUM AC (Access Controller) for data transmission/reception.

The QUANTUM COLLABO controls the QUANTUM AC (Access Controller) to connect to the Bob QUANTUM SERVER through the QUANTUM DUAL AP (Access Point), which is connected to an unlicensed frequency closed radio network through an unlicensed frequency modem among multi-communication modems. It controls AC (Access Controller) and connects to Alice QUANTUM SERVER through SK Telecom quantum authentication server authentication connected to the licensed frequency SK Telecom communication service provider LoRA wireless network network through a licensed frequency modem among multi-communication modems.

(System combination-Log In)

QUANTUM COLLABO is composed of QUANTUM AC (Access Controller), Eve quantum random number generator, and Encrypt TLS (Transport Layer Security protocol) MODULE.

Encrypt TLS MODULE consists of System Memory, PUF-PIN Memory, Security CPU, MCU (Main Control Unit), eve-NFC Chip, NFC Reader, Security OTP Memory, Boot-ROM, and SPI Controller.

QUANTUM COLLABO's internal Eve quantum random number generator generates a quantum random number and sends it to the Encrypt TLS MODULE internal Security CPU.

Encrypt TLS MODULE Internal MCU controls System Memory, PUF-PIN Memory, Security CPU, eve-NFC Chip, NFC Reader, Security OTP Memory, Boot-ROM, SPI Controller.

System memory is the system memory in which the MCU operating OS program is stored.

The MCU controls the security CPU to receive the Eve PIN data stored in the eve-NFC Chip through contactless near field communication, and stores the Eve PIN data in the PUF-PIN Memory as a random seed. Generates the Eve QUANTUM private key (PRIVATE KEY), asymmetric cryptographic algorithm.

The eve-NFC Chip is one of the physically unclonable functions (PUF) that are replaced monthly (or weekly, at any time) during the monthly maintenance service, and the Eve PIN data is entered through the NFC Writer and the Eve PIN data is transferred to the Alice QUANTUM SERVER. Save it.

The MCU receives the quantum random number from the Eve quantum random number generator and sends it to the Security CPU.

Security CPU performs beta-OR (EX-OR) encryption operation on the Eve QUANTUM private key stored in PUF-PIN Memory with the quantum random number seed, and performs OTP (One Time Password) asymmetric cryptographic algorithm Eve QUANTUM. It creates a public key, stores the Eve QUANTUM public key in Security One Time Password (OTP) memory, and transmits the Eve QUANTUM public key to QUANTUM AC (Access Controller).

The QUANTUM AC (Access Controller) transmits the Eve QUANTUM public key to Alice QUANTUM SERVER through the authentication of the SK Telecom quantum authentication server connected to the licensed frequency SK Telecom's LoRA wireless network network through the licensed frequency modem among the multi-communication modems.

The Alice QUANTUM SERVER includes an Alice Pseudo Random Number Generator (PRNG) and an Alice Quantum Random Number Generator (QRNG) inside.

Alice QUANTUM SERVER generates Alice PIN data with the Alice pseudo-random number seed generated by the Alice pseudo-random number generator, stores it in QUANTUM COLLABO, and stores the Alice PIN data generated as the Alice pseudo-random number seed as a random number seed. The Alice QUANTUM private key is generated with the Alice QUANTUM private key, and the Alice QUANTUM public key is generated by performing a beta-OR (EX-OR) encryption operation on the Alice QUANTUM private key with the quantum random number seed that generated the quantum random number from the Alice quantum random number generator. .

Alice QUANTUM SERVER is a licensed frequency by encrypting the Eve PIN data and Alice QUANTUM public key stored inside with the Eve QUANTUM public key received through the LoRA wireless network network of the SK Telecom telecommunication service provider, and unlicensed with the LoRA wireless network or wired network network of the SK Telecom telecommunication service provider. It retransmits to QUANTUM COLLABO through the frequency-closed wireless network, and the internal MCU of QUANTUM COLLABO decrypts the Eve PIN data and Alice QUANTUM public key encrypted with the Eve QUANTUM public key with the Eve QUANTUM private key, and performs the Alice QUANTUM public key and Eve PIN data. When the decryption is generated and the decrypted Eve PIN data and the Eve PIN data extracted from the eve-NFC Chip match,

The MCU boots the Boot-ROM through the SPI Controller and controls the QUANTUM AC (Access Controller), among the multi-communication modems, the Bob QUANTUM through the QUANTUM DUAL AP (Access Point) connected to the unlicensed frequency closed radio network through the unlicensed frequency modem. Connect SERVER and network log in.

(System combination-DATA transmission)

The QUANTUM AC (Access Controller) transmits the video data of surveillance cameras encrypted with the QUANTUM symmetric key through the QUANTUM DUAL AP to the Bob QUANTUM SERVER, which is logged in to the network. It transmits to Alice QUANTUM SERVER through either the 3G or 4G or 5G wireless network network of the SK Telecom service provider through the licensed frequency modem.

When Bob QUANTUM SERVER receives video data from surveillance cameras encrypted with QUANTUM symmetric key from QUANTUM DUAL AP, it is transmitted to Alice QUANTUM SERVER through wired network of any one of non-QUANTUM CHANNEL, BB84 QUANTUM CHANNEL, and hybrid-QUANTUM CHANNEL. do.

Alice QUANTUM SERVER receives video data from surveillance cameras encrypted with a QUANTUM symmetric key from at least one of a wired network and a wireless network, and decrypts it with a QUANTUM symmetric key (Symmetric-key algorithm applied).

(How to combine core component systems)

The QUANTUM AC (Access Controller) inside the QUANTUM COLLABO uses the Alice QUANTUM public key, and the multi-communication modem connects to the wireless network through one of SK Telecom's 3G licensed frequency modem, 4G licensed frequency modem, 5G licensed frequency modem, and LoRA modem. It is transmitted to the Alice QUANTUM SERVER and transmitted to the QUANTUM DUAL AP through an unlicensed frequency modem that has a high communication speed among low or high frequencies that can communicate with the surveillance camera image data encrypted with the QUANTUM symmetric key.

QUANTUM DUAL AP is capable of dual transmission and reception of 2.4GHz Low Frequency and 5GHz High Frequency. It selects Low Frequency or High Frequency for data transmission according to the communication environment according to obstacles.Before data transmission, QUANTUM AC (Access Controller) and QUANTUM DUAL AP performs Low Frequency and High Frequency PING tests, selects a frequency with a fast response speed, and encrypts and transmits large-capacity image data with a QUANTUM symmetric key to enhance security, improve communication speed, and reduce communication charges. Hybrid-QUANTUM CHANNEL One-Way- It features Ring Network.

(Quantum smartphone service for police business)

It consists of a QRNG SoChip quantum random number generator mounted inside a quantum smartphone (Samsung Electronics Galsxy S11, etc.) where the police-APP for police work certified by SK Telecom's quantum authentication server is uploaded, and an external NFC Tag pseudo-random number generator.

The NFC Tag pseudo-random number generator stores OTP (One Time Password) pseudo-random numbers through NFC Writer and the same OTP (One Time Password) pseudo-random number in Alice QUANTUM SERVER.

When the quantum smartphone is connected to the external network main board on the Alice QUANTUM SERVER,

Alice QUANTUM SERVER generates Alice PIN data with the Alice pseudo-random number seed generated by the Alice pseudo-random number generator, and generates the Alice QUANTUM private key using the Alice PIN data as a random number seed, and uses the Alice quantum random number generator. The Alice QUANTUM public key is generated by performing a beta-OR (EX-OR) encryption operation on the Alice QUANTUM private key with the quantum random number seed generated from the quantum random number, and the Alice QUANTUM public key is transmitted to the quantum smartphone, The quantum smartphone encrypts and retransmits the OTP (One Time Password) pseudo-random number generated by tagging the NFC Tag on the quantum smartphone NFC chip with the Alice QUANTUM public key.

Alice QUANTUM SERVER decrypts the OTP (One Time Password) pseudo-random number encrypted with the Alice QUANTUM public key with the QUANTUM private key, and if it matches the stored OTP (One Time Password) pseudo-random number, the video data taken by surveillance cameras is transferred to the network separation server The image data is transmitted to the external network main board through the board, and the quantum smartphone connects to the external network main board and logs in the OTP (One Time Password) pseudo-random number as the ID as the MAC address of the quantum smartphone as an ID. It is a heterogeneous network QUANTUM KEY distribution hybrid quantum communication closed self-network system, characterized in that receiving a.

In one embodiment,

It is composed of terminal SERVER, QUANTUM COLLABO, Alice QUANTUM SERVER, Bob QUANTUM SERVER, QUANTUM DUAL AP (Access Point), licensed frequency communication service provider wireless network, unlicensed frequency closed wireless private network, and wired private network. Quantum random number generator (QRNG; Quantum Random Number Generator) is used to generate the first quantum random number to generate the QUANTUM symmetric key of the symmetric cryptographic algorithm and store it in the PUF-PIN Memory and Alice QUANTUM SERVER inside the QUANTUM COLLABO. After logging in to the network network between QUANTUM COLLABO and Alice QUANTUM SERVER, the image data is encrypted/decrypted data communication with the QUANTUM symmetric key.

Alice QUANTUM SERVER is connected to the wireless network network with QUANTUM COLLABO through the wireless network network of the licensed frequency communication service provider.

In addition, Alice QUANTUM SERVER connects Bob QUANTUM SERVER and wired network network through any one of three wired self-networks of non-QUANTUM CHANNEL through CC certified VPN or hybrid-QUANTUM CHANNEL through BB84 QUANTUM CHANNEL or PUF-QRNG TWIN USB. do.

The QUANTUM COLLABO is connected to the Bob QUANTUM SERVER and the wireless network through a closed-type wireless network of unlicensed frequencies through the QUANTUM DUAL AP (Access Point).

QUANTUM COLLABO is to selectively select an unlicensed frequency closed radio network or a licensed frequency communication service provider's wireless network through QUANTUM AC (Access Controller) for data transmission/reception.

The QUANTUM COLLABO controls the QUANTUM AC (Access Controller) and connects to the Bob QUANTUM SERVER through the QUANTUM DUAL AP (Access Point), which is connected to an unlicensed frequency closed radio network through an unlicensed frequency modem among multi-communication modems, or QUANTUM COLLABO is a QUANTUM. By controlling AC (Access Controller), it is connected to Alice QUANTUM SERVER through the wireless network network of the licensed frequency communication service provider through the licensed frequency modem among multi-communication modems.

The system coupling relationship between the above components will be described.

QUANTUM COLLABO is composed of QUANTUM AC (Access Controller), Eve quantum random number generator, and Encrypt TLS (Transport Layer Security protocol) MODULE.

Encrypt TLS MODULE consists of System Memory, PUF-PIN Memory, Security CPU, MCU (Main Control Unit), eve-NFC Chip, NFC Reader, Security OTP Memory, SPI Controller, and Network Switch.

QUANTUM COLLABO's internal Eve quantum random number generator generates a quantum random number and sends it to the Encrypt TLS MODULE internal security CPU.

Encrypt TLS MODULE Internal MCU controls System Memory, PUF-PIN Memory, Security CPU, eve-NFC Chip, NFC Reader, Security OTP Memory, SPI Controller, and Network Switch.

System memory is the system memory in which the MCU operating OS program is stored.

The MCU controls the security CPU to receive the Eve PIN data stored in the eve-NFC Chip through contactless near field communication, and stores the Eve PIN data in the PUF-PIN Memory as a random seed. Generates the Eve QUANTUM private key (PRIVATE KEY), asymmetric cryptographic algorithm.

Through NFC Writer, Eve PIN data is entered into eve-NFC Chip and stored in Alice QUANTUM SERVER.

The MCU receives the quantum random number seed from the Eve quantum random number generator and stores the quantum random number seed stored in the security CPU and the Eve QUANTUM private key stored in the PUF-PIN memory, and performs beta-OR (EX-OR) encryption, and is OTP (One Time Password) asymmetric. Creates an asymmetric cryptographic algorithm Eve QUANTUM PUBLIC KEY, stores the Eve QUANTUM public key in Security One Time Password (OTP) memory, and transmits the Eve QUANTUM public key to QUANTUM AC (Access Controller). .

QUANTUM AC (Access Controller) transmits Eve QUANTUM public key to Alice QUANTUM SERVER through licensed frequency communication service provider wireless network network through licensed frequency modem among multi-communication modems.

The Alice QUANTUM SERVER includes an Alice Pseudo Random Number Generator (PRNG) and an Alice Quantum Random Number Generator (QRNG) inside.

Alice QUANTUM SERVER generates Alice PIN data through Alice pseudo-random number generator, stores it in QUANTUM COLLABO, generates Alice QUANTUM private key as random number seed, and generates quantum random number from Alice quantum random number generator. The Alice QUANTUM public key is generated by performing a beta-OR (EX-OR) encryption operation on the Alice QUANTUM private key with a quantum random number seed.

Alice QUANTUM SERVER encrypts the Eve PIN data and Alice QUANTUM public key stored inside with the Eve QUANTUM public key received through the wireless network network of the licensed frequency communication service provider, It retransmits to QUANTUM COLLABO through one of its own networks.

QUANTUM COLLABO internal MCU decrypts Eve PIN data and Alice QUANTUM public key encrypted with Eve QUANTUM public key with Eve QUANTUM private key to decrypt and generate Alice QUANTUM public key and Eve PIN data.

If the decrypted Eve PIN data and Eve PIN data extracted from the eve-NFC Chip match, the MCU switches the network switch ON and controls the QUANTUM AC (Access Controller) through the SPI Controller to be unlicensed among the multi-communication modems. It connects the Bob QUANTUM SERVER and the network log in through the QUANTUM DUAL AP (Access Point), which is connected to an unlicensed frequency closed wireless private network through a frequency modem.

When the QUANTUM AC (Access Controller) transmits the data generated by the terminal SERVER encrypted with the QUANTUM symmetric key through the QUANTUM DUAL AP to the Bob QUANTUM SERVER logged in to the network network,

The data generated by the terminal server encrypted with the QUANTUM symmetric key is transmitted to the QUANTUM DUAL AP through either a low frequency channel or a high frequency channel that can be communicated through an unlicensed frequency modem. Select one of them and encrypt and transmit the data generated by the terminal server with the QUANTUM symmetric key.

If communication with the QUANTUM DUAL AP is impossible, it is transmitted to Alice QUANTUM SERVER through the wireless network network of the licensed frequency communication service provider through the licensed frequency modem among the multi-communication modems.

When Bob QUANTUM SERVER receives data generated by the terminal SERVER encrypted with the QUANTUM symmetric key from the QUANTUM DUAL AP, it is sent to Alice QUANTUM SERVER through any one of non-QUANTUM CHANNEL, BB84 QUANTUM CHANNEL, and hybrid-QUANTUM CHANNEL. send.

Alice QUANTUM SERVER is a hybrid-QUANTUM that receives data generated by the terminal server encrypted with the QUANTUM symmetric key from at least one of the fixed-line and wireless network networks and decrypts it with the QUANTUM symmetric key to enhance security and improve communication speed and reduce communication charges. It is a heterogeneous network QUANTUM KEY distribution hybrid quantum communication closed self-network system featuring the CHANNEL One-Way-Ring Network.

In one embodiment,

It is composed of QUANTUM COLLABO, DUAL MODEM, QUANTUM DUAL AP, Alice QUANTUM SERVER, and Bob QUANTUM SERVER.

QUANTUM COLLABO is composed of Eve quantum random number generator, it first generates Eve quantum random number with Eve quantum random number generator and generates Eve QUANTUM private key with Eve quantum random number as a seed, and QUANTUM COLLABO generates quantum random number with Eve quantum random number generator. It regenerates and encrypts the Eve QUANTUM private key with a random number seed to generate the Eve QUANTUM public key.

DUAL MODEM transmits the Eve QUANTUM public key to Alice QUANTUM SERVER through the first network (communication service provider's wireless network network or communication service provider's wired network network).

Alice QUANTUM SERVER is composed of Alice quantum random number generator, and Alice quantum random number generator generates Alice quantum random number for the first time, and Alice QUANTUM private key is generated with Alice quantum random number as a seed.

Alice QUANTUM SERVER regenerates quantum random numbers with Alice's quantum random number generator, and generates Alice QUANTUM public key by performing encryption operation with Alice QUANTUM private key as a random number seed.

Alice QUANTUM SERVER transmits the Alice QUANTUM public key to QUANTUM COLLABO through the first network.

QUANTUM COLLABO encrypts the Eve quantum random number with the Alice QUANTUM public key and transmits it to the Alice QUANTUM SERVER through the first network.

Alice QUANTUM SERVER encrypts Alice's quantum random number with Eve QUANTUM public key and transmits it to QUANTUM COLLABO through the first network.

QUANTUM COLLABO decrypts the Alice quantum random number encrypted with the Eve QUANTUM public key with the Eve QUANTUM private key, and then generates a QUANTUM symmetric key by performing encryption with the Eve quantum random number stored in the internal memory.

Alice QUANTUM SERVER decrypts Eve quantum random number encrypted with Alice QUANTUM public key with Alice QUANTUM private key, then encrypts with Alice quantum random number stored in internal memory to generate QUANTUM symmetric key.

QUANTUM COLLABO transmits the encrypted data encrypted with the QUANTUM symmetric key to the DUAL MODEM.

The DUAL MODEM transmits the encrypted data encrypted with the QUANTUM symmetric key to the Bob QUANTUM SERVER through the second network radio-owned network (local government radio-owned network, unlicensed frequency closed radio-owned network) QUANTUM AP.

When the Bob QUANTUM SERVER receives the encrypted data encrypted with the QUANTUM symmetric key from the QUANTUM DUAL AP, it transmits it to the Alice QUANTUM SERVER through the second network wired self network.

The second network is a network that combines an unlicensed frequency closed wireless private network and a wired private network before and after the Bob QUANTUM SERVER.

As an example, the second network is composed of'QUANTUM COLLABO-unlicensed frequency closed wireless private network-Bob QUANTUM SERVER-wired private network-Alice QUANTUM SERVER'.

Alice QUANTUM SERVER is a heterogeneous network QUANTUM KEY distribution hybrid quantum communication closed private network system featuring a Two-Way-Ring Network that receives encrypted data encrypted with the QUANTUM symmetric key from the second network wired private network and decrypts it with the QUANTUM symmetric key. .

In one embodiment,

It is composed of QUANTUM COLLABO, DUAL MODEM, QUANTUM DUAL AP, Alice QUANTUM SERVER, and Bob QUANTUM SERVER.

QUANTUM COLLABO is composed of Eve quantum random number generator, and it generates basic-Eve quantum random number to generate asymmetric cryptographic algorithm private key (PRIVATE KEY) with Eve quantum random number generator and stores it in internal memory. Generate the Eve QUANTUM private key from the basic-Eve quantum random number as a seed.

QUANTUM COLLABO is a Eve quantum random number generator that generates a new new-Eve quantum random number to generate an asymmetric cryptographic algorithm PUBLIC KEY, and uses the Eve QUANTUM private key and cryptographic operation (known EX- OR, EX-AND, operator, operation function, etc.) to generate Eve QUANTUM public key.

DUAL MODEM transmits Eve QUANTUM public key to Alice QUANTUM SERVER through either wired or wireless network of communication service provider.

In the same way, Alice QUANTUM SERVER is configured including the Alice quantum random number generator, generates basic-Alice quantum random numbers with the Alice quantum random number generator, stores them in the internal memory, and uses the basic-Alice quantum random number as a seed, and uses the Alice QUANTUM private key. Generate.

Alice QUANTUM SERVER generates a new new-Alice quantum random number from the Alice quantum random number generator, and performs encryption operation with the Alice QUANTUM private key as a seed to generate the Alice QUANTUM public key.

Alice QUANTUM SERVER transmits the Alice QUANTUM public key to QUANTUM COLLABO through either the wired or wireless network of the service provider.

QUANTUM COLLABO encrypts basic-Eve quantum random numbers with the Alice QUANTUM public key and transmits them to the Alice QUANTUM SERVER through either the wired or wireless network of the communication service provider.

Alice QUANTUM SERVER encrypts basic-Alice quantum random numbers with the Eve QUANTUM public key and transmits them to QUANTUM COLLABO through the wireless network of the communication service provider.

QUANTUM COLLABO decrypts the basic-Alice quantum random number encrypted with the Eve QUANTUM public key with the Eve QUANTUM private key, and then encrypts the basic-Eve quantum random number stored in the internal memory to generate a symmetric cryptographic algorithm QUANTUM symmetric key.

Alice QUANTUM SERVER decrypts the basic-Eve quantum random number encrypted with the Alice QUANTUM public key with the Alice QUANTUM private key, and encrypts the basic-Alice quantum random number stored in the internal memory and uses the symmetric cryptographic algorithm QUANTUM symmetric key as described above. Generate.

That is, QUANTUM COLLABO and Alice QUANTUM SERVER generate the same QUANTUM symmetric key using the same encryption operator for the same basic-Alice quantum random number and basic-Eve quantum random number, respectively.

The internal data (data measured by sensors, etc.) generated in QUANTUM COLLABO is encrypted with the QUANTUM symmetric key, and the encrypted data is transmitted to the DUAL MODEM.

The DUAL MODEM transmits the encrypted data encrypted with the QUANTUM symmetric key to the Bob QUANTUM SERVER through the wireless network QUANTUM AP.

When Bob QUANTUM SERVER receives encrypted data encrypted with QUANTUM symmetric key from QUANTUM DUAL AP, it transmits it to Alice QUANTUM SERVER through the wired own network.

Alice QUANTUM SERVER is a heterogeneous network QUANTUM KEY distribution hybrid quantum communication closed self network system featuring a Two-Way-Ring Network that receives encrypted data encrypted with the QUANTUM symmetric key from the wired own network and decrypts it with the QUANTUM symmetric key.

In one embodiment,

The eve-NFC Chip is one of the physical PUFs (Physically Unclonable Functions) that are replaced during regular inspection, and the Eve PIN data generation step that inputs Eve PIN data through the NFC Writer and stores it in the Alice QUANTUM SERVER.

The Alice QUANTUM SERVER (including the Eve PIN data generation step) generates Alice PIN data that is stored in QUANTUM COLLABO by generating Alice PIN data through the Alice pseudo-random number generator inside.

The QUANTUM JUMP ENGINE inside the QUANTUM COLLABO (which includes the step of generating Alice PIN data) receives the Eve PIN data stored in the eve-NFC Chip through contactless near field communication, and stores it in the PUF-PIN Memory. After that, the Eve QUANTUM private key generation step is used to generate the Eve QUANTUM private key using the Eve PIN data as a random number seed.

The Eve quantum random number generator inside the QUANTUM COLLABO (which includes the step of generating the Eve QUANTUM private key) generates a quantum random number, uses the Eve QUANTUM private key as the quantum random number seed, and performs a beta-OR (EX-OR) encryption operation. One Time Password) Eve QUANTUM public key generation step to generate Eve QUANTUM public key.

The QUANTUM AC (Access Controller) inside the QUANTUM COLLABO (which includes the step of generating the Eve QUANTUM public key) transfers the Eve QUANTUM public key through a licensed frequency modem among the multi-communication modems through the licensed frequency SK Telecom operator's LoRA wireless network. Eve QUANTUM public key transmission step.

Alice QUANTUM SERVER (which includes the step of transmitting the Eve QUANTUM public key) is the Alice QUANTUM private key generation step that generates Alice PIN data through the Alice pseudo-random number generator and uses the Alice PIN data as a random number seed to generate the Alice QUANTUM private key. .

Alice QUANTUM SERVER (including the Alice QUANTUM private key generation step) is a quantum random number seed that generates a quantum random number through the Alice quantum random number generator. Alice QUANTUM public key generation step to generate the QUANTUM public key.

(Including the Alice QUANTUM public key generation step) Alice QUANTUM SERVER is a QUANTUM CA (Certification Authority) that encrypts the Eve PIN data and Alice QUANTUM public key stored internally with the Eve QUANTUM public key received through the LoRA wireless network network of SK Telecom's telecommunications service provider. certificate) to the Bob QUANTUM SERVER through any one of the non-QUANTUM CHANNEL or BB84 QUANTUM CHANNEL or PUF-QRNG TWIN USB through the hybrid-QUANTUM CHANNEL.

Bob QUANTUM SERVER (including the wired network transmission stage) uses the QUANTUM DUAL AP (Access Point) to encrypt the Eve PIN data and Alice QUANTUM public key stored internally with the Eve QUANTUM public key, using the QUANTUM CA at 2.4GHz Low Frequency. QUANTUM AC transmission step that transmits to COLLABO's internal QUANTUM AC (QUANTUM ACcess Controller).

QUANTUM COLLABO (including the QUANTUM AC transmission step) decrypts the Eve PIN data encrypted with the Eve QUANTUM public key and the QUANTUM CA encrypted with the Alice QUANTUM public key with the Eve QUANTUM private key to decrypt the Alice QUANTUM public key and Eve PIN data. step.

QUANTUM COLLABO (including the decryption step) extracts the Eve PIN data extracted from the eve-NFC Chip, and if the Eve PIN data generated in the decryption step and the Eve PIN data extracted from the eve-NFC Chip match, Alice Preparing to transmit video data by encrypting the video data captured by the surveillance camera with the QUANTUM public key and transmitting it to the QUANTUM AC (Access Controller).

By performing a QUANTUM AC (Access Controller) and High Frequency PING test (including the video data transmission preparation stage), selecting a frequency with a fast response speed, and transmitting the video data from surveillance cameras encrypted with the Alice QUANTUM public key to the QUANTUM DUAL AP. Image data transmission step.

When the Bob QUANTUM SERVER (including the image data transmission step) receives the video data from the surveillance camera encrypted with the Alice QUANTUM public key from the QUANTUM DUAL AP, one of non-QUANTUM CHANNEL, BB84 QUANTUM CHANNEL, and hybrid-QUANTUM CHANNEL Video data reception step that is transmitted to Alice QUANTUM SERVER through wired network network.

Alice QUANTUM SERVER (including the image data receiving step) is a video data decryption step characterized by a One-Way-Ring Network that receives video data from surveillance cameras encrypted with the Alice QUANTUM public key and decrypts it with the Alice QUANTUM private key.

When the quantum smartphone connects to the external network main board to the Alice QUANTUM SERVER (including the image data decoding step), the Alice QUANTUM SERVER regenerates the Alice PIN data through the Alice pseudo-random number generator, and uses the Alice PIN data as a random number seed. The Alice QUANTUM private key regeneration step of regenerating the Alice QUANTUM private key with ).

Alice QUANTUM private key beta-wise OR (EX-OR) encryption operation of Alice QUANTUM private key with a new quantum random number seed that generates a new quantum random number from the Alice quantum random number generator (including the step of regenerating the Alice QUANTUM private key). New Alice QUANTUM public key generation step to generate the QUANTUM public key.

When the new Alice QUANTUM public key is transmitted to a quantum smartphone (including the step of generating a new Alice QUANTUM public key), the quantum smartphone uses the new Alice QUANTUM public key to tag the NFC Tag on the quantum smartphone NFC chip to generate an OTP. (One Time Password) OTP transmission step that encrypts and retransmits pseudo-random numbers.

The Alice QUANTUM SERVER (including the OTP transmission step) decrypts the OTP (One Time Password) pseudo-random number encrypted with the new Alice QUANTUM public key with the QUANTUM private key, and then shoots the surveillance camera if it matches the stored OTP (One Time Password) pseudo-random number. Video export preparation step in which image data is transmitted to the external network main board through the network separation server's internal network main board.

Quantum smartphone (including the image export preparation step) accesses the external network main board and receives the image data by logging in the quantum smartphone MAC address as an ID and the OTP (One Time Password) pseudo-random number as a One-Time Password. This is the One-Way-Ring/Two-Way-Ring Network QUANTUM KEY control method applied to the hybrid-QUANTUM CHANNEL characterized by an image export step.

In one embodiment,

The eve-NFC Chip is one of the physical PUFs (Physically Unclonable Functions) that are replaced during regular inspection, and the Eve PIN data generation step that inputs Eve PIN data through the NFC Writer and stores it in the Alice QUANTUM SERVER.

Alice QUANTUM SERVER generates Alice PIN data through the Alice pseudo-random number generator and stores it in QUANTUM COLLABO.

QUANTUM COLLABO internal QUANTUM JUMP ENGINE receives Eve PIN data stored in eve-NFC Chip through non-contact near field communication (Near Field Communication), and stores the Eve PIN data in PUF-PIN Memory after receiving the Eve PIN data as a random number seed. Eve QUANTUM private key generation step to generate Eve QUANTUM private key.

The Eve quantum random number generator inside QUANTUM COLLABO generates a quantum random number and performs beta-OR (EX-OR) encryption operation of the Eve QUANTUM private key with the quantum random number seed to generate OTP (One Time Password) Eve QUANTUM public key. Eve QUANTUM public key generation step.

QUANTUM COLLABO Internal QUANTUM AC (Access Controller) transmits Eve QUANTUM public key to Alice QUANTUM SERVER through licensed frequency SK Telecom's LoRA wireless network network through licensed frequency modem among multi-communication modems.

Alice QUANTUM SERVER generates Alice PIN data through Alice's pseudo-random number generator and generates Alice QUANTUM private key using Alice PIN data as a random number seed.

Alice QUANTUM SERVER generates the Alice QUANTUM public key by performing beta-OR (EX-OR) encryption operation on the Alice QUANTUM private key with the quantum random number seed that generated the quantum random number through the Alice quantum random number generator. step.

Alice QUANTUM SERVER is a non-QUANTUM CHANNEL or BB84 QUANTUM CHANNEL that encrypts the Eve PIN data and Alice QUANTUM public key encrypted with the Eve QUANTUM public key received through the SK Telecom carrier's LoRA wireless network. Or a wired network transmission step of transmitting to the Bob QUANTUM SERVER through any one of the hybrid-QUANTUM CHANNEL through PUF-QRNG TWIN USB.

Bob QUANTUM SERVER uses a QUANTUM DUAL AP (Access Point) to encrypt the Eve PIN data and Alice QUANTUM public key stored internally with the Eve QUANTUM public key through the QUANTUM CA at 2.4GHz Low Frequency to the QUANTUM COLLABO's internal QUANTUM AC (QUANTUM ACcess Controller). Transmission phase of the QUANTUM AC transmission.

QUANTUM COLLABO decrypts Eve PIN data encrypted with Eve QUANTUM public key and QUANTUM CA encrypted with Alice QUANTUM public key with Eve QUANTUM private key to decrypt Alice QUANTUM public key and Eve PIN data.

QUANTUM COLLABO extracts the Eve PIN data extracted from the eve-NFC Chip, and if it matches the Eve PIN data generated in the decryption step and the Eve PIN data extracted from the eve-NFC Chip, the surveillance camera photographed image with the Alice QUANTUM public key. Preparing for video data transmission by encrypting the data and transmitting it to the QUANTUM AC (Access Controller).

Video data transmission step of transmitting the video data from surveillance cameras encrypted with the Alice QUANTUM public key to the QUANTUM DUAL AP by selecting the frequency with fast response speed by conducting QUANTUM AC (Access Controller) and High Frequency PING test.

When Bob QUANTUM SERVER receives video data from surveillance cameras encrypted with Alice QUANTUM public key from QUANTUM DUAL AP, it is transferred to Alice QUANTUM SERVER through wired network of any one of non-QUANTUM CHANNEL, BB84 QUANTUM CHANNEL, and hybrid-QUANTUM CHANNEL. Step of receiving video data to be transmitted.

Alice QUANTUM SERVER is a video data decryption step characterized by a One-Way-Ring Network that receives video data from surveillance cameras encrypted with the Alice QUANTUM public key and decrypts it with the Alice QUANTUM private key.

When a quantum smartphone connects to the Alice QUANTUM SERVER, the Alice QUANTUM SERVER regenerates the Alice PIN data through the Alice pseudo-random number generator and regenerates the Alice QUANTUM private key as a random number seed. The Alice QUANTUM private key is regenerated.

Create a new Alice QUANTUM public key that generates a new Alice QUANTUM public key by performing a beta-OR (EX-OR) encryption operation on the Alice QUANTUM private key with a new quantum random number seed that generates a new quantum random number from the Alice quantum random number generator. step.

When the new Alice QUANTUM public key is transmitted to a quantum smartphone, the quantum smartphone encrypts and retransmits the OTP (One Time Password) pseudo-random number generated by tagging the NFC Tag with the quantum smartphone NFC chip with the new Alice QUANTUM public key. OTP transmission stage.

Alice QUANTUM SERVER decrypts the OTP (One Time Password) pseudo-random number encrypted with the new Alice QUANTUM public key with the QUANTUM private key, and if it matches the stored OTP (One Time Password) pseudo-random number, the surveillance camera image data is separated from the network inside the server. Preparing for video export that is transmitted to the external network main board through the main board.

HYBRID characterized in that the quantum smartphone is connected to an external network main board, logs in the OTP (One Time Password) pseudo-random number as an ID as the quantum smartphone MAC address and receives the image data. -This is the ONE-WAY-RING/TWO-WAY-RING NETWORK QUANTUM KEY control method applied to the QUANTUM CHANNEL.

In one embodiment,

Alice/Bob QUANTUM SERVER generates a random quantum random number through the Alice/Bob quantum random number generator (QRNG; Quantum Random Number Generator) inside and encrypts it through the half mirror effect symmetric key algorithm (Symmetric Cryptographic Algorithm). It is characterized by generating a QUANTUM symmetric key,

The Quantum Random Number Generator (QRNG) generates a random number seed (Seed) to generate the QUANTUM symmetric key of the symmetric key algorithm, and the QUANTUM private key (PRIVATE KEY) of the asymmetric cryptographic algorithm. ) To generate a random number seed (Seed) to generate a basic-QRN (Quantum Random Number) and a QUANTUM public key (PUBLIC KEY) pair to generate a random number seed (Seed) new-QRN (Quantum Random Number) to generate new-QRN Creation stage.

Alice QUANTUM SERVER is connected to QUANTUM COLLABO through the network of a telecommunication service provider, and Alice QUANTUM SERVER is connected to one of non-QUANTUM CHANNEL and QUANTUM CHANNEL through Bob QUANTUM SERVER. Network network connection step that connects QUANTUM COLLABO to the network through the network.

QUANTUM COLLABO is composed of QUANTUM AC, Eve quantum random number generator, and QUANTUM COLLABO is internally configured to selectively select one or more of an unlicensed frequency closed radio network or a network of a telecommunication service provider through the QUANTUM AC (Access Controller). As a result, QUANTUM COLLABO controls QUANTUM AC and connects to Bob QUANTUM SERVER through QUANTUM DUAL AP (Access Point) connected to an unlicensed frequency closed radio network through an unlicensed frequency modem among multi-communication modems, or QUANTUM COLLABO controls QUANTUM AC. Therefore, the network network selection step of connecting to Alice QUANTUM SERVER through the network network of the communication service provider through the modem of the communication service provider among the multi-communication modems.

QUANTUM COLLABO generates a basic-QRN random number from Eve quantum random number generator and generates an asymmetric key cryptographic algorithm Eve QUANTUM private key using the random number seed.

QUANTUM COLLABO generates a new-QRN random number from the Eve quantum random number generator, encrypts the Eve QUANTUM private key and the new-QRN random number seed, and generates an asymmetric key cryptographic algorithm OTP (One Time Password) Eve QUANTUM public key to QUANTUM AC. In the transmission stage, the QUANTUM AC transmits the Eve QUANTUM public key to the Alice QUANTUM SERVER through the communication service provider's network network through the communication service provider's modem among the multi-communication modems.

Alice QUANTUM SERVER is composed of Alice quantum random number generator inside, Alice QUANTUM SERVER receives basic-QRN from Alice quantum random number generator and generates asymmetric key encryption algorithm Alice QUANTUM private key as a random number seed Alice QUANTUM private key Creation stage.

Alice QUANTUM SERVER receives the new-QRN random number from the Alice quantum random number generator and encrypts the Alice QUANTUM private key and the new-QRN random number seed to generate an asymmetric key encryption algorithm OTP (One Time Password) Alice QUANTUM, which generates the Alice QUANTUM public key. Public key generation step.

Alice QUANTUM SERVER and QUANTUM COLLABO exchange the Alice QUANTUM public key and Eve QUANTUM public key with each other by transmitting the Alice QUANTUM public key through the network of the telecommunication service provider.

QUANTUM COLLABO receives the early-Eve QRN from the Eve quantum random number generator, encrypts the early-Eve QRN with the Alice QUANTUM public key, and transmits it to the Alice QUANTUM SERVER through the network of the service provider, and the Alice QUANTUM SERVER is sent from the Alice quantum random number generator. The transmission step of receiving the early-Alice QRN, encrypting the early-Alice QRN with the Eve QUANTUM public key, and transmitting it to the QUANTUM COLLABO through the network of the communication service provider.

QUANTUM COLLABO decrypts the early-Alice QRN encrypted with the Eve QUANTUM public key with the Eve QUANTUM private key, then encrypts it with the early-Eve QRN to generate the QUANTUM symmetric key of the symmetric key algorithm, and the Alice QUANTUM SERVER releases Alice QUANTUM with the Alice QUANTUM private key. A symmetric key generation step of generating a QUANTUM symmetric key of a symmetric key algorithm by decrypting the early-Eve QRN encrypted with the key and performing the same encryption operation as above with the early-Alice QRN.

Alice QUANTUM SERVR encrypts QUANTUM COLLABO's log information with a QUATUM symmetric key and transmits it to Bob QUANTUM SERVER through a wired private network, and Bob QUANTUM SERVER is a QUANTUM COLLABO's log information encrypted with a QUATUM symmetric key through an unlicensed frequency closed wireless private network. Is transmitted to QUANTUM COLLABO, and QUANTUM COLLABO decrypts the QUANTUM COLLABO's log information encrypted with the QUATUM symmetric key with the QUANTUM symmetric key, and in the case of approved log information, controls the QUANTUM AC to close the unlicensed frequency through the unlicensed frequency modem among the multi communication modems. Log-in step that connects Bob QUANTUM SERVER and network log-in through QUANTUM DUAL AP (Access Point) connected via private wireless network.

The QUANTUM AC transmits the video data from surveillance cameras encrypted with the QUANTUM symmetric key through the QUANTUM DUAL AP to the Bob QUANTUM SERVER through the closed wireless network of unlicensed frequencies logged in to the network network, and the Bob QUANTUM SERVER shoots the surveillance camera. Video data is transmitted to Alice QUANTUM SERVER through any one of non-QUANTUM CHANNEL, QUANTUM CHANNEL, and hybrid-QUANTUM CHANNEL, and Alice QUANTUM SERVER is a surveillance camera image data encrypted with QUANTUM symmetric key from the wired private network. This is a TWO-WAY-RING NETWORK QUANTUM KEY control method applied to HYBRID-QUANTUM CHANNEL featuring a hybrid-QUANTUM CHANNEL Two-Way-Ring Network characterized by receiving and decoding with a QUANTUM symmetric key.

In one embodiment,

The QUANTUM SERVER features a QKD (Quantum Key Distribution) that generates a QUANTUM symmetric key, a QUANTUM private key, and a QUANTUM public key as a seed from a random quantum random number generated through an internal quantum random number generator.

Quantum random number generator is a random number generation step of generating an early-QRN random number for generating a QUANTUM symmetric key, a basic-QRN random number for generating a QUANTUM private key, and a new-QRN random number for generating a QUANTUM public key.

QUANTUM COLLABO is composed of QUANTUM AC and Eve quantum random number generators, and QUANTUM COLLABO selectively selects either the first network or the second network through the internal QUANTUM AC, and QUANTUM COLLABO uses the QUANTUM AC. Alice QUANTUM, which is connected to the first network between the QUANTUM COLLABO and Alice QUANTUM SERVER, which is controlled and connected to the QUANTUM COLLABO through the first network, or the QUANTUM COLLABO controls the QUANTUM AC and is connected to the Alice QUANTUM SERVER through the second network. Network network connection step to connect to the second network between SERVER and QUANTUM COLLABO.

QUANTUM COLLABO is the Eve QUANTUM private key generation step that generates the basic-QRN from the Eve quantum random number generator and generates the Eve QUANTUM private key as a random number seed.

QUANTUM COLLABO generates new-QRN from Eve quantum random number generator, encrypts Eve QUANTUM private key and new-QRN random number seed, generates Eve QUANTUM public key, and transmits it to QUANTUM AC.

QUANTUM AC is the Alice QUANTUM SERVER transmission step that transmits the Eve QUANTUM public key to the Alice QUANTUM SERVER connected to the first network.

Alice QUANTUM SERVER is composed of Alice quantum random number generator inside, Alice QUANTUM SERVER generates Alice QUANTUM private key as a random number seed by generating basic-QRN from Alice quantum random number generator, and Alice QUANTUM SERVER is Alice quantum random number Alice QUANTUM public key generation step by generating a new-QRN from the generator to encrypt the Alice QUANTUM private key and the new-QRN random number seed to generate the Alice QUANTUM public key.

Alice QUANTUM SERVER transmits the Alice QUANTUM public key to QUANTUM COLLABO through the first network, and QUANTUM COLLABO receives the early-Eve QRN from the Eve quantum random number generator and encrypts the early-Eve QRN with the Alice QUANTUM public key. It transmits to Alice QUANTUM SERVER through network network, and Alice QUANTUM SERVER receives early-Alice QRN from Alice quantum random number generator, encrypts early-Alice QRN with Eve QUANTUM public key, and transmits it to QUANTUM COLLABO through the first network. QUANTUM COLLABO transmission phase.

QUANTUM COLLABO decrypts the early-Alice QRN encrypted with the Eve QUANTUM public key with the Eve QUANTUM private key, and then encrypts it with the early-Eve QRN to generate the QUANTUM symmetric key. -Eve The QUANTUM symmetric key generation step of generating a QUANTUM symmetric key by decrypting the QRN and performing an encryption operation with the early-Alice QRN.

QUANTUM COLLABO transmits internal data encrypted with QUATUM symmetric key to Alice QUANTUM SERVR, and Alice QUANTUM SERVR receives internal data encrypted with QUATUM symmetric key and decrypts it with QUANTUM symmetric key. This is the TWO-WAY-RING NETWORK QUANTUM KEY control method applied to the HYBRID-QUANTUM CHANNEL characterized by the network.

In one embodiment,

Alice QUANTUM SERVER is connected to the wireless network network of the licensed frequency communication service provider, and Alice QUANTUM SERVER is connected to the Bob QUANTUM SERVER through the non-QUANTUM CHANNEL wired network network, and the Bob QUANTUM SERVER is connected to the QUANTUM COLLABO through the QUANTUM DUAL AP. Unlicensed frequency closed radio network is connected,

In data transmission/reception, QUANTUM COLLABO selectively selects an unlicensed frequency closed radio network or a wireless network network of a licensed frequency communication service provider through QUANTUM AC, and QUANTUM COLLABO controls the QUANTUM AC to control the unlicensed frequency among multi-communication modems. Connected to Bob QUANTUM SERVER through QUANTUM DUAL AP connected to unlicensed frequency enclosed wireless private network through modem, or QUANTUM COLLABO controls QUANTUM AC through a licensed frequency modem among multi-communication modems through the wireless network network of a licensed frequency communication service provider. A network network selection step that selectively connects the connection with the QUANTUM SERVER.

QUANTUM COLLABO's internal Eve quantum random number generator generates a quantum random number and transmits it to the Encrypt TLS MODULE, and the Encrypt TLS MODULE stores Eve PIN data after storing it when Eve PIN data is received through contactless near field communication from the NFC card. Eve QUANTUM private key generation step to generate the asymmetric key encryption algorithm Eve QUANTUM private key as a seed

After entering the Eve PIN data through the NFC Writer on the NFC card, it is stored in the Alice QUANTUM SERVER, and the Encrypt TLS MODULE receives the quantum random number from the Eve quantum random number generator and encrypts the Eve QUANTUM private key with the quantum random number seed. The Eve QUANTUM public key transmission step, which generates and stores the Eve QUANTUM public key, and transmits the Eve QUANTUM public key to QUANTUM AC by calculating the OTP (One Time Password) asymmetric key encryption algorithm.

The Eve QUANTUM public key generation step, in which QUANTUM AC transmits the Eve QUANTUM public key to Alice QUANTUM SERVER through the wireless network network of the licensed frequency communication service provider through the licensed frequency modem among multi-communication modems.

Alice QUANTUM SERVER is composed of Alice pseudo-random number generator (PRNG) and Alice quantum random number generator (QRNG) inside. Alice QUANTUM SERVER generates Alice PIN data through Alice pseudo-random number generator and stores it in QUANTUM COLLABO and Alice PIN Alice QUANTUM private key generation step that generates Alice QUANTUM private key using data as a random number seed.

Alice QUANTUM public key generation step of generating Alice QUANTUM public key by encrypting the Alice QUANTUM private key with the quantum random number seed generated by the Alice quantum random number generator.

Alice QUANTUM SERVER encrypts the Eve PIN data and Alice QUANTUM public key stored inside with the Eve QUANTUM public key received through the wireless network network of the licensed frequency communication service provider, Retransmission step of retransmission to QUANTUM COLLABO through own network.

QUANTUM COLLABO decrypts and generates Alice QUANTUM public key and Eve PIN data by decrypting Eve PIN data and Alice QUANTUM public key encrypted with Eve QUANTUM public key with Eve QUANTUM private key.

If the Eve PIN data decoded in the decryption step matches the Eve PIN data stored inside, the QUANTUM COLLABO controls the QUANTUM AC and connects to an unlicensed frequency closed radio own network through an unlicensed frequency modem among the multi-communication modems. Log-in step to connect Bob QUANTUM SERVER and network log-in (Log In) through.

When the QUANTUM AC transmits the terminal device generated data encrypted with the Alice QUANTUM public key through the QUANTUM DUAL AP to the Bob QUANTUM SERVER logged in to the network network, the data generated by the terminal device encrypted with the Alice QUANTUM public key is transmitted through an unlicensed frequency modem. Unlicensed frequency data transmission step that is transmitted to the QUANTUM DUAL AP through the device.

When the Bob QUANTUM SERVER receives the terminal device generated video data encrypted with the Alice QUANTUM public key from the QUANTUM DUAL AP, the wired network relay step of the Bob QUANTUM SERVER transmits it to the Alice QUANTUM SERVER through the non-QUANTUM CHANNEL wired network network.

Alice QUANTUM SERVER receives terminal device-generated data encrypted with Alice QUANTUM's public key and decrypts it with Alice QUANTUM's private key to enhance security, improve communication speed, and reduce communication charges. HYBRID- featuring hybrid-QUANTUM CHANNEL One-Way-Ring Network. This is the TWO-WAY-RING NETWORK QUANTUM KEY control method applied to the QUANTUM CHANNEL.

In one embodiment,

QUANTUM COLLABO is composed of Eve quantum random number generator, and Eve QUANTUM private key generation step to generate Eve quantum random number with Eve quantum random number generator for the first time and to generate Eve QUANTUM private key with Eve quantum random number as a seed.

QUANTUM COLLABO generates a Eve QUANTUM public key by regenerating a quantum random number with the Eve quantum random number generator and performing encryption with the Eve QUANTUM private key as a random number seed to generate the Eve QUANTUM public key.

DUAL MODEM transmits Eve QUANTUM public key to Alice QUANTUM SERVER through the first network.

Alice QUANTUM SERVER is composed of Alice quantum random number generator, and Alice QUANTUM private key is generated by first generating Alice quantum random number with Alice quantum random number generator and generating Alice QUANTUM private key using Alice quantum random number as a seed.

Alice QUANTUM SERVER is the Alice QUANTUM public key generation step that generates the Alice QUANTUM public key by regenerating a quantum random number with the Alice quantum random number generator and performing encryption operation with the Alice QUANTUM private key as a random number seed to generate the Alice QUANTUM public key.

Alice QUANTUM SERVER transmits Alice QUANTUM public key to QUANTUM COLLABO through the first network, Alice QUANTUM public key transmission step.

QUANTUM COLLABO encrypts the Eve quantum random number with the Alice QUANTUM public key and transmits it to the Alice QUANTUM SERVER through the first network, and the Alice QUANTUM SERVER encrypts the Alice quantum random number with the Eve QUANTUM public key and transmits it to the QUANTUM COLLABO through the first network. The step of exchanging quantum random numbers.

QUANTUM COLLABO decrypts the Alice quantum random number encrypted with the Eve QUANTUM public key with the Eve QUANTUM private key, and then encrypts the Eve quantum random number stored in the internal memory to generate a QUANTUM symmetric key.Also, the Alice QUANTUM SERVER uses the Alice QUANTUM private key as the Alice QUANTUM public key. A QUANTUM symmetric key generation step of generating the same QUANTUM symmetric key by decrypting the encrypted Eve quantum random number and then performing encryption operation with the Alice quantum random number stored in the internal memory to generate the same QUANTUM symmetric key.

QUANTUM COLLABO transmits the encrypted data encrypted with the QUANTUM symmetric key to the DUAL MODEM, and the DUAL MODEM transmits the encrypted data encrypted with the QUANTUM symmetric key to the Alice QUANTUM SERVER through the second network.

Alice QUANTUM SERVER is a TWO-WAY- applied to the HYBRID-QUANTUM CHANNEL featuring a two-way-ring network that includes a decryption step that receives encrypted data encrypted with the QUANTUM symmetric key from the second network and decrypts it with the QUANTUM symmetric key. Distribution method of RING NETWORK QUANTUM KEY.

10. Filter part
11. Filter drive motor
12. Zoom Lens
13. Zoom motor
14. Variable focus lens
15. Focus Motor
16. Focus Lens
17. Motor driven drive
18. M/M
19. CPU
20. RS-485
21. Manual control
22. Remote control part
23. TRNG
24. System M/M
25. PUF-PIN M/M
26. Security CPU
27. MCU
28. PUF Chip
29. e-FUSE
30. Security OTP M/M
31. Boot-ROM
32. SPI Controller
33. Image sensor unit
34. 5G QUANTUM JUMP ENGINE
35. Video 6G SECURITY ENGINE
36.Quantum Entanglement
37.Decoy Pulse
38. Image analysis module
39. Object recognition module
40. Number Recognition Module
41.DEBUGGER
42. QUANTUM BLOCK CHAIN
43. 1:N BLOCK CHAIN
44. BNC connector
45.RJ-45 connector
46. Sensor part
47.AMI
48. Switchboard
49. QUANTUM 5G Access Point (AP)
50. Broadcasting device
51. Emergency bell
52. Landscape/Security Light
53. Dimmer
54. Terminal SINGLE USB
55.Bob 6G QUANTUM SERVER
56.Bob QUANTUM SERVER
57.Bob PUF-QRNG TWIN USB
58.non-QUANTUM CHANNEL
59. QUANTUM CHANNEL
60. hybrid-QUANTUM CHANNEL
61.Master QUANTUM SERVER
62.Alice 6G QUANTUM SERVER
63.Alice QUANTUM SERVER
64. QUANTUM 6G SECURITY ENGINE
65.Alice PUF-QRNG TWIN USB
66. LPWAN communication modem

Claims (68)

AI direct fire short-circuit prediction controller, QUANTUM TLS (Transport Layer Security), multi-communication interface, information protection module, monitor speaker, terminal control server, PA broadcasting device, smart broadcasting device including AV broadcasting device and QUANTUM KEY authentication server, manager It consists of smartphone, OTP NFC, multi-use facility control server, multi-use facility alarm terminal, remote collaboration server, wired speaker, and emergency broadcasting terminal.

The QUANTUM KEY authentication server, QUANTUM TLS (Transport Layer Security), OTP NFC, and collaboration server are configured to include the same pseudo random number generator (PRNG) to generate the same pseudo random number.

Civil defense alarm terminals that can be remotely controlled from the Korea Air and Space Operations Center (KAOC) or Article 33, Paragraph 3 of the Framework Act on Civil Defense, Article 55-2 of the Enforcement Decree of the same Act (propagation of civil defense warnings) "Buildings subject to warning transmission When the multi-use facility control server receives emergency broadcast broadcasting data (disaster boundary, disaster risk, air raid, chemical room, TTS (Text To Speech) data) for the inside/outside of public buildings such as schools, government offices, etc.,

The QUANTUM KEY authentication server is composed of the same pseudo random number generator (PRNG) as the QUANTUM TLS (Transport Layer Security), and seeds the pseudo random number (PRN) generated through the pseudo random number generator (PRNG). ) To generate a terminal private key (PRIVATE KEY) through a key generation program;
The QUANTUM KEY authentication server is a smart broadcasting device through one or more communication networks among self-network, national disaster network, DMB, MMS, Internet, UHD TV, satellite, radio, PSTN, PS-LTE, LoRA, NB-IoT, and SigFox. Transmits the QUANTUM KEY authentication server ID (IDentification) Address to the communication interface;
The multi-communication interface transmits the QUANTUM KEY authentication server ID Address to QUANTUM Transport Layer Security (TLS);
The QUANTUM TLS (Transport Layer Security) receives the ID address, checks the ID address of the QUANTUM KEY authentication server, and uses the pseudo-random number (PRN) generated by the same pseudo-random number generator (PRNG) as the QUANTUM KEY authentication server as a seed. Generates a pair of terminal private keys (PRIVATE KEY) identical to the terminal private key (PRIVATE KEY) generated by the QUANTUM KEY authentication server through the same key generation program as the internal key generation program in the KEY authentication server;
QUANTUM Transport Layer Security (TLS) uses a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG) as a seed, as the terminal private key (PRIVATE). KEY) is encrypted through a beta-OR (EX-OR) key generation program to generate a terminal OTP public key (PUBLIC KEY);
QUANTUM TLS (Transport Layer Security) transmits a terminal OTP public key (PUBLIC KEY) to the QUANTUM KEY authentication server MAC (Media Access Control) Address through a multi-communication interface;
The QUANTUM KEY authentication server transmits the terminal OTP public key (PUBLIC KEY) to the multi-use facility control server;
The multi-use facility control server encrypts emergency broadcasting broadcasting data (disaster boundary, disaster risk, air raid, chemical room, TTS (Text To Speech) data) with the terminal OTP public key (PUBLIC KEY), and uses the QUANTUM TLS (Transport Layer Security);
QUANTUM TLS (Transport Layer Security) is a terminal private key (PRIVATE KEY) for emergency broadcasting broadcast data (disaster boundary, disaster risk, air raid, chemical room, TTS (Text To Speech) data) encrypted with the terminal OTP public key (PUBLIC KEY). Decoded and transmitted to the terminal control server;
The terminal control server transmits emergency broadcasting broadcasting data (disaster alert, disaster risk, air raid, chemistry room, TTS (Text To Speech) data) to the multi-use facility alarm terminal;
The multi-use facility alarm terminal transmits emergency broadcast broadcast data (disaster boundary, disaster risk, air raid, chemical room, TTS (Text To Speech) data) through any one or more of sound, voice, or video through a PA broadcast device or AV broadcast device. Express;

The terminal control server inside the smart broadcasting device transmits and broadcasts TTS (Text To Speech) emergency broadcasting broadcast data to a wired speaker connected through a wired network network; And
The terminal control server inside the smart broadcasting device broadcasts TTS (Text To Speech) emergency broadcasting broadcasting data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency radio repeater installed in the EPS room on each floor of the multi-use facility;

The terminal control server periodically performs a line ping test through the AI direct firing short-circuit prediction controller and transmits a ping test result report to the manager's smartphone;

When the terminal control server receives a fire event from the fire reception team, in performing the emergency broadcast of the fire occurrence sequentially through the AI direct fire short-circuit prediction controller,
The AI direct firing short-circuit prediction controller includes an AI mode selection ON/OFF button, and when the AI mode selection button is in the ON state, when a short-circuit layer occurs during the sequential emergency broadcast of the direct fire, it automatically connects to the next emergency broadcast;
When the emergency broadcasting terminal receives and broadcasts emergency broadcasting broadcasting data while the AI mode selection button of the AI direct fire short-circuit prediction controller is OFF, the sound data received through the internal monitor microphone is transmitted to the internal information protection module of the smart broadcasting device. ;
The information protection module transmits the sound data to the terminal control server only when the emergency broadcasting broadcasting data is transmitted through the emergency broadcasting terminal;
The terminal control server broadcasts the received sound data to the monitor speaker only when the emergency broadcast broadcast data is transmitted through the emergency broadcast terminal;

The emergency broadcasting terminal installed inside/outside the building consists of a wired terminal block, wireless receiver, amplification unit, speaker unit, monitor microphone, AC supply unit, storage battery, super capacitor, driving unit, power control unit, and main control unit.
A wired terminal block to which a fire protection cable for transmitting emergency broadcasting broadcast data is connected;
A radio receiver configured to receive a radio frequency modulated with emergency broadcast broadcast data;
An amplifying unit for amplifying the radio frequency modulated by emergency broadcasting broadcasting data;
A speaker unit for converting a radio frequency modulated with emergency broadcasting data into sound;
The AC supply unit is an AC supply unit that receives AC power at all times and supplies driving power to the driving unit;
The storage battery receives power from the AC supply unit and charges it to supply power to the driving unit;
When it is not possible to supply constant power through the AC supply unit, unlike a storage battery, a charged supercondenser is a supercondenser that supplies power to the driving unit for one-time emergency broadcasting by using the characteristic that natural discharge does not occur;
The driving unit is a driving unit that receives driving power from an AC supply unit, a storage battery or a super capacitor and supplies driving power to a wireless receiver, an amplification unit, a speaker unit, a power control unit, a monitor microphone, and a main control unit;
The main control unit composed of a microprocessor controls a wireless receiving unit, an amplifying unit, a speaker unit, an AC supply unit, a super capacitor, a driving unit, a monitor microphone, and a power control unit; And
The main control unit controls the power control unit and receives AC power at all times and supplies driving power to the AC supply unit through the storage battery, but controls the power control unit when it is impossible to supply the driving power to the AC supply unit due to deterioration of the performance of the storage battery or a power outage or fire. Thus supplying driving power through a super capacitor;
The driving unit supplies driving power to the monitor microphone, generates sound data through the monitor microphone, and transmits it to the information protection module inside the smart broadcasting device only when emergency broadcast broadcast data is received;

The terminal control server includes emergency broadcasting sequential mode selection ON/OFF buttons, and when the sequential mode selection button is ON, emergency broadcasting broadcasting data (disaster alert, disaster risk, air raid, hwasaengbang, TTS (Text To Speech) data) ) Is sequentially broadcast to the inner floors of the building;
When the sequential mode selection button is in the OFF state, emergency broadcasting broadcast data (disaster alert, disaster risk, air raid, chemistry room, TTS (Text To Speech) data) is broadcast to all floors of the building at once;
The terminal control server is composed of emergency broadcasting manager mode selection ON/OFF buttons, and when the administrator mode selection button is ON, emergency broadcasting broadcasting data (disaster alert, disaster risk, air raid, hwasaengbang, TTS (Text To Speech) data) ), and transmits an emergency broadcast broadcast data reception alarm to the manager's smartphone;

When the manager smartphone receives the emergency broadcast data reception alarm and connects to the terminal control server,
QUANTUM TLS (Transport Layer Security) is configured to include the same pseudo random number generator (PRNG) as OTP NFC, and seed the pseudo random number (PRN) that generates the same pseudo random number (PRN) as the NFC OTP. ) To generate an administrator's private key (PRIVATE KEY) through a key generation program;
QUANTUM TLS (Transport Layer Security) is a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG). Generates an administrator OTP public key (PUBLIC KEY) by encrypting through an EX-OR key generation program;
The terminal control server transmits the manager OTP public key (PUBLIC KEY) to the manager smartphone;
When physical OTP NFC is tagged on the manager's smartphone, OTP NFC uses the same pseudo random number generator (PRNG) as the QUANTUM TLS (Transport Layer Security) to generate the same pseudo-random number generated by the QUANTUM Transport Layer Security (TLS). (PRN) is created and sent to the manager's smartphone;
The manager smartphone generates an OTP manager authentication key that encrypts the pseudo-random number (PRN) with the manager OTP PUBLIC KEY received from QUANTUM TLS (Transport Layer Security) and transmits it to QUANTUM Transport Layer Security (TLS). ;
QUANTUM TLS (Transport Layer Security) is the same pseudo random number (PRN) generated through the same pseudo random number generator (PRNG) as the OTP NFC by decrypting the OTP manager authentication key with the manager private key (PRIVATE KEY). In this case, a user authentication login (Log IN) is performed between the terminal control server and the manager smartphone, and the remote control emergency broadcast broadcast data is broadcast to the terminal control server with the manager smartphone;

When the remote collaboration server connects to the terminal control server,
QUANTUM TLS (Transport Layer Security) is composed of the same pseudo random number generator (PRNG) as the remote collaboration server, and generates a key as a seed from the pseudo random number that generates the same pseudo random number as the remote collaboration server. Generate a collaboration private key (PRIVATE KEY) through the program;
QUANTUM Transport Layer Security (TLS) is a quantum random number that generates unpredictable quantum random numbers through a quantum random number generator (QRNG). Encrypted through a key generation program to generate a collaboration OTP public key (PUBLIC KEY);
The terminal control server transmits the collaboration OTP public key (PUBLIC KEY) to the remote collaboration server;
The remote collaboration server generates the same pseudo random number through the same pseudo random number generator (PRNG) as the QUANTUM TLS (Transport Layer Security) and receives the collaboration OTP public key from QUANTUM TLS (Transport Layer Security). ) To generate an OTP collaboration authentication key by encrypting the pseudo-random number and transmit it to QUANTUM Transport Layer Security (TLS);
QUANTUM TLS (Transport Layer Security) decrypts the OTP collaboration authentication key with a collaboration private key (PRIVATE KEY), and if it is the same pseudo random number generated through the same pseudo random number generator (PRNG) as the remote collaboration server, A smart broadcasting device closed self-network system, characterized in that a user authentication login (Log IN) is performed between the terminal control server and the remote collaboration server to remotely control the terminal control server with the remote collaboration server.
AI direct fire short-circuit prediction controller, QUANTUM TLS, multi-communication interface, information protection module, monitor speaker, terminal control server, PA broadcasting device, smart broadcasting device including AV broadcasting device and QUANTUM KEY authentication server, manager smartphone, OTP NFC , Multi-use facility control server, multi-use facility alarm terminal, remote collaboration server, wired speaker, emergency broadcasting terminal,

The QUANTUM KEY authentication server, QUANTUM TLS, OTP NFC, and collaboration server are configured to include the same pseudo-random number generator (PRNG) to generate the same pseudo-random number.
When the civil defense alarm terminal or multi-use facility control server receives emergency broadcast broadcasting data,
The QUANTUM KEY authentication server includes the same pseudo-random number generator (PRNG) as QUANTUM TLS, and uses the pseudo-random number (PRN) generated through the pseudo-random number generator (PRNG) as a seed, and the terminal private key through a key generation program. Create (PRIVATE KEY);
The QUANTUM KEY authentication server transmits the QUANTUM KEY authentication server ID Address to the multi-communication interface inside the smart broadcasting device;
The multi-communication interface transmits the QUANTUM KEY authentication server ID Address to QUANTUM TLS;
QUANTUM TLS receives the ID address, checks the ID address of the QUANTUM KEY authentication server, and uses the pseudo-random number (PRN) generated through the same pseudo-random number generator (PRNG) as the QUANTUM KEY authentication server as a seed. Generates a pair of terminal private keys identical to the terminal private key (PRIVATE KEY) generated by the QUANTUM KEY authentication server through the same key generation program as the generation program;
QUANTUM TLS encrypts the terminal private key (PRIVATE KEY) through a key generation program using a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG) as a seed. Generate a terminal OTP public key (PUBLIC KEY);
QUANTUM TLS transmits the terminal OTP public key (PUBLIC KEY) to the MAC Address of the QUANTUM KEY authentication server through a multi-communication interface;
The QUANTUM KEY authentication server transmits the terminal OTP public key (PUBLIC KEY) to the multi-use facility control server;
The multi-use facility control server encrypts the emergency broadcast broadcasting data with the terminal OTP PUBLIC KEY and transmits it to QUANTUM TLS through the multi-communication interface;
QUANTUM TLS decrypts the emergency broadcast broadcast data encrypted with the terminal OTP public key (PUBLIC KEY) with the terminal private key (PRIVATE KEY) and transmits it to the terminal control server;
The terminal control server transmits the emergency broadcast broadcasting data to the multi-use facility alarm terminal;

In the multi-use facility alarm terminal, in broadcasting emergency broadcasting broadcasting data through a PA broadcasting device and an AV broadcasting device,
The terminal control server inside the smart broadcasting device transmits the emergency broadcasting broadcast data to a wired speaker connected through a wired network network and broadcasts it;
The terminal control server inside the smart broadcasting system broadcasts emergency broadcasting broadcasting data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency radio repeater installed in the EPS room on each floor of the multi-use facility;

The terminal control server performs a line ping test through an AI direct fire short prediction controller and transmits a ping test result report to the manager's smartphone;

When the terminal control server receives a fire event from the fire reception team, in order to perform emergency broadcasting of the fire occurrence direct fire through the AI direct fire short-circuit prediction controller,
The AI direct firing short-circuit prediction controller includes an AI mode selection ON/OFF button, and when the AI mode selection button is in the ON state, when a short-circuit layer occurs during the sequential emergency broadcast of the direct fire, it automatically connects to the next emergency broadcast;
When the emergency broadcasting terminal receives and broadcasts emergency broadcasting broadcasting data while the AI mode selection button of the AI direct fire short-circuit prediction controller is OFF, the sound data received through the internal monitor microphone is transmitted to the internal information protection module of the smart broadcasting device. ;
The information protection module transmits the sound data to the terminal control server only when the emergency broadcasting broadcasting data is transmitted through the emergency broadcasting terminal;
The terminal control server broadcasts the received sound data to the monitor speaker only when the emergency broadcast broadcast data is transmitted through the emergency broadcast terminal;

The emergency broadcasting terminal installed inside/outside the building consists of a wired terminal block, wireless receiver, amplification unit, speaker unit, monitor microphone, AC supply unit, storage battery, super capacitor, driving unit, power control unit, and main control unit.
A wired terminal block to which a fire protection cable for transmitting emergency broadcasting broadcast data is connected;
A radio receiver configured to receive a radio frequency modulated with emergency broadcast broadcast data;
An amplifying unit for amplifying the radio frequency modulated by emergency broadcasting broadcasting data;
A speaker unit for converting a radio frequency modulated with emergency broadcasting data into sound;
The AC supply unit is an AC supply unit that receives AC power at all times and supplies driving power to the driving unit;
The storage battery receives power from the AC supply unit and charges it to supply power to the driving unit;
When it is not possible to supply constant power through the AC supply unit, unlike a storage battery, a charged supercondenser is a supercondenser that supplies power to the driving unit for one-time emergency broadcasting by using the characteristic that natural discharge does not occur;
The driving unit is a driving unit that receives driving power from an AC supply unit, a storage battery or a super capacitor and supplies driving power to a wireless receiver, an amplification unit, a speaker unit, a power control unit, a monitor microphone, and a main control unit;
The main control unit composed of a microprocessor controls a wireless receiving unit, an amplifying unit, a speaker unit, an AC supply unit, a super capacitor, a driving unit, a monitor microphone, and a power control unit; And
The main control unit controls the power control unit and receives AC power at all times and supplies driving power to the AC supply unit through the storage battery, but controls the power control unit when it is impossible to supply the driving power to the AC supply unit due to deterioration of the performance of the storage battery or a power outage or fire. Thus supplying driving power through a super capacitor;
The driving unit supplies driving power to the monitor microphone, generates sound data through the monitor microphone, and transmits it to the information protection module inside the smart broadcasting device only when emergency broadcast broadcast data is received;

The terminal control server includes an emergency broadcasting sequential mode selection ON/OFF button, and when the sequential mode selection button is ON, the emergency broadcasting broadcasting data is sequentially broadcast to the inner floor of the building;
When the sequential mode selection button is in the OFF state, emergency broadcasting broadcast data is broadcast to all floors of the building at once;
The terminal control server includes an emergency broadcast manager mode selection ON/OFF button. When the manager mode selection button is ON, when emergency broadcast broadcast data is received, the emergency broadcast broadcast data reception event is transmitted to the manager's smartphone, but in the OFF state. In the case of, it is not transmitted;

When the manager's smartphone receives the emergency broadcast data reception event and connects to the terminal control server,
QUANTUM TLS is composed of the same pseudo-random number generator (PRNG) as OTP NFC, and uses a pseudo-random number (PRN) that generates the same pseudo-random number (PRN) as the NFC OTP as a seed. Create (PRIVATE KEY);
QUANTUM TLS is a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG). PUBLIC KEY) is created;
The terminal control server transmits the manager OTP public key (PUBLIC KEY) to the manager smartphone;
When the physical OTP NFC is tagged on the manager smartphone, the OTP NFC generates the same pseudorandom number (PRN) generated by QUANTUM TLS through the same pseudorandom number generator (PRNG) as the QUANTUM TLS and transmits it to the manager smartphone;
The manager smartphone generates an OTP manager authentication key that encrypts the pseudo-random number (PRN) with the manager OTP public key received from QUANTUM TLS and transmits it to QUANTUM TLS;
QUANTUM TLS decrypts the OTP administrator authentication key with the administrator's private key (PRIVATE KEY), and in the case of the same pseudo-random number (PRN) generated through the same pseudo-random number generator (PRNG) as the OTP NFC, between the terminal control server and the administrator smartphone User authentication login (Log IN) to broadcast the emergency broadcast broadcast data remotely controlled to the terminal control server with the administrator's smartphone

When the remote collaboration server connects to the terminal control server,
QUANTUM TLS is composed of the same pseudo-random number generator (PRNG) as the remote collaboration server, and the pseudo-random number that generates the same pseudo-random number as the remote collaboration server is used as a seed, and a collaboration private key (PRIVATE KEY) through a key generation program. To create;
QUANTUM TLS is a quantum random number that generates unpredictable quantum random numbers through a quantum random number generator (QRNG) and encrypts the collaboration private key (PRIVATE KEY) through a key generation program to generate a collaboration OTP public key (PUBLIC KEY). ;
The terminal control server transmits the collaboration OTP public key (PUBLIC KEY) to the remote collaboration server;
The remote collaboration server generates the same pseudo-random number through the same pseudo-random number generator (PRNG) as the QUANTUM TLS, and generates an OTP collaboration authentication key that encrypts the pseudo-random number with the collaboration OTP public key received from QUANTUM TLS. Send with QUANTUM TLS;
QUANTUM TLS decrypts the OTP collaboration authentication key with the collaboration private key (PRIVATE KEY), and in the case of the same pseudo-random number generated through the same pseudo-random number generator (PRNG) as the remote collaboration server, the user between the terminal control server and the remote collaboration server A smart broadcasting device closed self-network system, characterized in that the authentication login (Log IN) is performed to remotely control the terminal control server with a remote collaboration server.
◈ Claim 3 was abandoned upon payment of the set registration fee.◈ AI direct fire short-circuit prediction controller, QUANTUM TLS, multi-communication interface, information protection module, monitor speaker, terminal control server, PA broadcasting device, smart broadcasting device including AV broadcasting device and QUANTUM KEY authentication server, manager smartphone, OTP NFC , Multi-use facility control server, multi-use facility alarm terminal, remote collaboration server, wired speaker, emergency broadcasting terminal,

The QUANTUM KEY authentication server, QUANTUM TLS, OTP NFC, and collaboration server are configured to include the same pseudo-random number generator (PRNG) to generate the same pseudo-random number.
When the civil defense alarm terminal or multi-use facility control server receives emergency broadcast broadcasting data,
The QUANTUM KEY authentication server includes the same pseudo-random number generator (PRNG) as QUANTUM TLS, and uses the pseudo-random number (PRN) generated through the pseudo-random number generator (PRNG) as a seed, and the terminal private key through a key generation program. Create (PRIVATE KEY);
The QUANTUM KEY authentication server transmits the QUANTUM KEY authentication server ID Address to the multi-communication interface inside the smart broadcasting device;
The multi-communication interface transmits the QUANTUM KEY authentication server ID Address to QUANTUM TLS;
QUANTUM TLS receives the ID address, checks the ID address of the QUANTUM KEY authentication server, and uses the pseudo-random number (PRN) generated through the same pseudo-random number generator (PRNG) as the QUANTUM KEY authentication server as a seed. Generates a pair of terminal private keys identical to the terminal private key (PRIVATE KEY) generated by the QUANTUM KEY authentication server through the same key generation program as the generation program;
QUANTUM TLS encrypts the terminal private key (PRIVATE KEY) through a key generation program using a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG) as a seed. Generate a terminal OTP public key (PUBLIC KEY);
QUANTUM TLS transmits the terminal OTP public key (PUBLIC KEY) to the MAC Address of the QUANTUM KEY authentication server through a multi-communication interface;
The QUANTUM KEY authentication server transmits the terminal OTP public key (PUBLIC KEY) to the multi-use facility control server;
The multi-use facility control server encrypts the emergency broadcast broadcasting data with the terminal OTP PUBLIC KEY and transmits it to QUANTUM TLS through the multi-communication interface;
QUANTUM TLS decrypts the emergency broadcast broadcast data encrypted with the terminal OTP public key (PUBLIC KEY) with the terminal private key (PRIVATE KEY) and transmits it to the terminal control server;
The terminal control server transmits the emergency broadcast broadcasting data to the multi-use facility alarm terminal;

In the multi-use facility alarm terminal, in broadcasting emergency broadcasting broadcasting data through a PA broadcasting device and an AV broadcasting device,
The terminal control server inside the smart broadcasting device transmits the emergency broadcasting broadcast data to a wired speaker connected through a wired network network and broadcasts it;
The terminal control server inside the smart broadcasting system broadcasts emergency broadcasting broadcasting data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency radio repeater installed in the EPS room on each floor of the multi-use facility;

The terminal control server performs a line ping test through an AI direct fire short prediction controller and transmits a ping test result report to the manager's smartphone;

When the terminal control server receives a fire event from the fire reception team, in order to perform emergency broadcasting of the fire occurrence direct fire through the AI direct fire short-circuit prediction controller,
The AI direct firing short-circuit prediction controller includes an AI mode selection ON/OFF button, and when the AI mode selection button is in the ON state, when a short-circuit layer occurs during the sequential emergency broadcast of the direct fire, it automatically connects to the next emergency broadcast;
When the emergency broadcasting terminal receives and broadcasts emergency broadcasting broadcasting data while the AI mode selection button of the AI direct fire short-circuit prediction controller is OFF, the sound data received through the internal monitor microphone is transmitted to the internal information protection module of the smart broadcasting device. ;
The information protection module transmits the sound data to the terminal control server only when the emergency broadcasting broadcasting data is transmitted through the emergency broadcasting terminal;
The terminal control server broadcasts the received sound data to the monitor speaker only when the emergency broadcast broadcast data is transmitted through the emergency broadcast terminal;

The emergency broadcasting terminal installed inside/outside the building consists of a wired terminal block, wireless receiver, amplification unit, speaker unit, monitor microphone, AC supply unit, storage battery, drive unit, power control unit, and main control unit.
A wired terminal block to which a fire protection cable for transmitting emergency broadcasting broadcast data is connected;
A radio receiver configured to receive a radio frequency modulated with emergency broadcast broadcast data;
An amplifying unit for amplifying the radio frequency modulated by emergency broadcasting broadcasting data;
A speaker unit for converting a radio frequency modulated with emergency broadcasting data into sound;
The AC supply unit is an AC supply unit that receives AC power at all times and supplies driving power to the driving unit;
The storage battery receives power from the AC supply unit and charges it to supply power to the driving unit;
The driving unit is a driving unit that receives driving power from an AC supply unit or a storage battery and supplies driving power to a wireless receiving unit, an amplifying unit, a speaker unit, a power control unit, a monitor microphone, and a main control unit;
The main control unit composed of a microprocessor controls a wireless receiving unit, an amplifying unit, a speaker unit, an AC supply unit, a driving unit, a monitor microphone, and a power control unit; And
The driving unit supplies driving power to the monitor microphone, generates sound data through the monitor microphone, and transmits it to the information protection module inside the smart broadcasting device only when emergency broadcast broadcast data is received;

The terminal control server includes an emergency broadcasting sequential mode selection ON/OFF button, and when the sequential mode selection button is ON, the emergency broadcasting broadcasting data is sequentially broadcast to the inner floor of the building;
When the sequential mode selection button is in the OFF state, emergency broadcasting broadcast data is broadcast to all floors of the building at once;
The terminal control server includes an emergency broadcast manager mode selection ON/OFF button. When the manager mode selection button is ON, when emergency broadcast broadcast data is received, the emergency broadcast broadcast data reception event is transmitted to the manager's smartphone, but in the OFF state. In the case of, it is not transmitted;

When the manager's smartphone receives the emergency broadcast data reception event and connects to the terminal control server,
QUANTUM TLS is composed of the same pseudo-random number generator (PRNG) as OTP NFC, and uses a pseudo-random number (PRN) that generates the same pseudo-random number (PRN) as the NFC OTP as a seed. Create (PRIVATE KEY);
QUANTUM TLS is a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG). PUBLIC KEY) is created;
The terminal control server transmits the manager OTP public key (PUBLIC KEY) to the manager smartphone;
When the physical OTP NFC is tagged on the manager smartphone, the OTP NFC generates the same pseudorandom number (PRN) generated by QUANTUM TLS through the same pseudorandom number generator (PRNG) as the QUANTUM TLS and transmits it to the manager smartphone;
The manager smartphone generates an OTP manager authentication key that encrypts the pseudo-random number (PRN) with the manager OTP public key received from QUANTUM TLS and transmits it to QUANTUM TLS;
QUANTUM TLS decrypts the OTP administrator authentication key with the administrator's private key (PRIVATE KEY), and in the case of the same pseudo random number (PRN) as the NFC OTP generated through the same pseudo random number generator (PRNG) as the OTP NFC, the terminal control server and the administrator The user authentication login (Log IN) between the smartphones to broadcast the emergency broadcast broadcast data remotely controlled to the terminal control server with the administrator smartphone;

When the remote collaboration server connects to the terminal control server,
QUANTUM TLS is composed of the same pseudo-random number generator (PRNG) as the remote collaboration server, and the pseudo-random number that generates the same pseudo-random number as the remote collaboration server is used as a seed, and a collaboration private key (PRIVATE KEY) through a key generation program. To create;
QUANTUM TLS is a quantum random number that generates unpredictable quantum random numbers through a quantum random number generator (QRNG) and encrypts the collaboration private key (PRIVATE KEY) through a key generation program to generate a collaboration OTP public key (PUBLIC KEY). ;
The terminal control server transmits the collaboration OTP public key (PUBLIC KEY) to the remote collaboration server;
The remote collaboration server generates the same pseudo-random number through the same pseudo-random number generator (PRNG) as the QUANTUM TLS, and generates an OTP collaboration authentication key that encrypts the pseudo-random number with the collaboration OTP public key received from QUANTUM TLS. Send with QUANTUM TLS;
QUANTUM TLS decrypts the OTP collaboration authentication key with the collaboration private key (PRIVATE KEY), and in the case of the same pseudo-random number generated through the same pseudo-random number generator (PRNG) as the remote collaboration server, the user between the terminal control server and the remote collaboration server Smart broadcasting device, characterized in that the authentication login (Log IN) to remotely control the terminal control server with a remote collaboration server.
◈ Claim 4 was abandoned upon payment of the set registration fee. AI direct fire short-circuit prediction controller, QUANTUM TLS, information protection module, monitor speaker, terminal control server, PA broadcasting device, smart broadcasting device including AV broadcasting device and QUANTUM KEY authentication server, manager smartphone, OTP NFC, multi-use facility It consists of a control server, multi-use facility alarm terminal, remote collaboration server, wired speaker, and emergency broadcasting terminal.

The QUANTUM KEY authentication server, QUANTUM TLS, OTP NFC, and collaboration server are configured to include the same pseudo-random number generator (PRNG) to generate the same pseudo-random number.
When the civil defense alarm terminal or multi-use facility control server receives emergency broadcast broadcasting data,
The QUANTUM KEY authentication server includes the same pseudo-random number generator (PRNG) as QUANTUM TLS, and uses the pseudo-random number (PRN) generated through the pseudo-random number generator (PRNG) as a seed, and the terminal private key through a key generation program. Create (PRIVATE KEY);
The QUANTUM KEY authentication server transmits the QUANTUM KEY authentication server ID Address to the QUANTUM TLS inside the smart broadcasting device;
QUANTUM TLS receives the ID address, checks the ID address of the QUANTUM KEY authentication server, and uses the pseudo-random number (PRN) generated through the same pseudo-random number generator (PRNG) as the QUANTUM KEY authentication server as a seed. Generates a pair of terminal private keys identical to the terminal private key (PRIVATE KEY) generated by the QUANTUM KEY authentication server through the same key generation program as the generation program;
QUANTUM TLS encrypts the terminal private key (PRIVATE KEY) through a key generation program using a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG) as a seed. Generate a terminal OTP public key (PUBLIC KEY);
QUANTUM TLS transmits the terminal OTP public key (PUBLIC KEY) to the MAC address of the QUANTUM KEY authentication server;
The QUANTUM KEY authentication server transmits the terminal OTP public key (PUBLIC KEY) to the multi-use facility control server;
The multi-use facility control server encrypts the emergency broadcast broadcast data with the terminal OTP PUBLIC KEY and transmits it through QUANTUM TLS;
QUANTUM TLS decrypts the emergency broadcast broadcast data encrypted with the terminal OTP public key (PUBLIC KEY) with the terminal private key (PRIVATE KEY) and transmits it to the terminal control server;
The terminal control server transmits the emergency broadcast broadcasting data to the multi-use facility alarm terminal;

In the multi-use facility alarm terminal, in broadcasting emergency broadcasting broadcasting data through a PA broadcasting device and an AV broadcasting device,
The terminal control server inside the smart broadcasting device transmits the emergency broadcasting broadcast data to a wired speaker connected through a wired network network and broadcasts it;
The terminal control server inside the smart broadcasting system broadcasts emergency broadcasting broadcasting data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency radio repeater installed in the EPS room on each floor of the multi-use facility;

The terminal control server performs a line ping test through an AI direct fire short prediction controller and transmits a ping test result report to the manager's smartphone;

When the terminal control server receives a fire event from the fire reception team, in order to perform emergency broadcasting of the fire occurrence direct fire through the AI direct fire short-circuit prediction controller,
The AI direct firing short-circuit prediction controller includes an AI mode selection ON/OFF button, and when the AI mode selection button is in the ON state, when a short-circuit layer occurs during the sequential emergency broadcast of the direct fire, it automatically connects to the next emergency broadcast;
When the emergency broadcasting terminal receives and broadcasts emergency broadcasting broadcasting data while the AI mode selection button of the AI direct fire short-circuit prediction controller is OFF, the sound data received through the internal monitor microphone is transmitted to the internal information protection module of the smart broadcasting device. ;
The information protection module transmits the sound data to the terminal control server only when the emergency broadcasting broadcasting data is transmitted through the emergency broadcasting terminal;
The terminal control server broadcasts the received sound data to the monitor speaker only when the emergency broadcast broadcast data is transmitted through the emergency broadcast terminal;

The emergency broadcasting terminal installed inside/outside the building consists of a wired terminal block, wireless receiver, amplification unit, speaker unit, monitor microphone, AC supply unit, storage battery, drive unit, power control unit, and main control unit.
A wired terminal block to which a fire protection cable for transmitting emergency broadcasting broadcast data is connected;
A radio receiver configured to receive a radio frequency modulated with emergency broadcast broadcast data;
An amplifying unit for amplifying the radio frequency modulated by emergency broadcasting broadcasting data;
A speaker unit for converting a radio frequency modulated with emergency broadcasting data into sound;
The AC supply unit is an AC supply unit that receives AC power at all times and supplies driving power to the driving unit;
The storage battery receives power from the AC supply unit and charges it to supply power to the driving unit;
The driving unit is a driving unit that receives driving power from an AC supply unit or a storage battery and supplies driving power to a wireless receiving unit, an amplifying unit, a speaker unit, a power control unit, a monitor microphone, and a main control unit;
The main control unit composed of a microprocessor controls a wireless receiving unit, an amplifying unit, a speaker unit, an AC supply unit, a driving unit, a monitor microphone, and a power control unit; And
The driving unit supplies driving power to the monitor microphone, generates sound data through the monitor microphone, and transmits it to the information protection module inside the smart broadcasting device only when emergency broadcast broadcast data is received;

The terminal control server includes an emergency broadcasting sequential mode selection ON/OFF button, and when the sequential mode selection button is ON, the emergency broadcasting broadcasting data is sequentially broadcast to the inner floor of the building;
When the sequential mode selection button is in the OFF state, emergency broadcasting broadcast data is broadcast to all floors of the building at once;
The terminal control server includes an emergency broadcast manager mode selection ON/OFF button. When the manager mode selection button is ON, when emergency broadcast broadcast data is received, the emergency broadcast broadcast data reception event is transmitted to the manager's smartphone, but in the OFF state. In the case of, it is not transmitted;

When the manager's smartphone receives the emergency broadcast data reception event and connects to the terminal control server,
QUANTUM TLS is composed of the same pseudo-random number generator (PRNG) as OTP NFC, and uses a pseudo-random number (PRN) that generates the same pseudo-random number (PRN) as the NFC OTP as a seed. Create (PRIVATE KEY);
QUANTUM TLS is a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG). PUBLIC KEY) is created;
The terminal control server transmits the manager OTP public key (PUBLIC KEY) to the manager smartphone;
When the physical OTP NFC is tagged on the manager smartphone, the OTP NFC generates the same pseudorandom number (PRN) generated by QUANTUM TLS through the same pseudorandom number generator (PRNG) as the QUANTUM TLS and transmits it to the manager smartphone;
The manager smartphone generates an OTP manager authentication key that encrypts the pseudo-random number (PRN) with the manager OTP public key received from QUANTUM TLS and transmits it to QUANTUM TLS;
QUANTUM TLS decrypts the OTP administrator authentication key with the administrator's private key (PRIVATE KEY), and in the case of the same pseudo random number (PRN) as the NFC OTP generated through the same pseudo random number generator (PRNG) as the OTP NFC, the terminal control server and the administrator The user authentication login (Log IN) between the smartphones to broadcast the emergency broadcast broadcast data remotely controlled to the terminal control server with the administrator smartphone;

When the remote collaboration server connects to the terminal control server,
QUANTUM TLS is composed of the same pseudo-random number generator (PRNG) as the remote collaboration server, and the pseudo-random number that generates the same pseudo-random number as the remote collaboration server is used as a seed, and a collaboration private key (PRIVATE KEY) through a key generation program. To create;
QUANTUM TLS is a quantum random number that generates unpredictable quantum random numbers through a quantum random number generator (QRNG) and encrypts the collaboration private key (PRIVATE KEY) through a key generation program to generate a collaboration OTP public key (PUBLIC KEY). ;
The terminal control server transmits the collaboration OTP public key (PUBLIC KEY) to the remote collaboration server;
The remote collaboration server generates the same pseudo-random number through the same pseudo-random number generator (PRNG) as the QUANTUM TLS, and generates an OTP collaboration authentication key that encrypts the pseudo-random number with the collaboration OTP public key received from QUANTUM TLS. Send with QUANTUM TLS;
QUANTUM TLS decrypts the OTP collaboration authentication key with the collaboration private key (PRIVATE KEY), and in the case of the same pseudo-random number generated through the same pseudo-random number generator (PRNG) as the remote collaboration server, the user between the terminal control server and the remote collaboration server Smart broadcasting device, characterized in that the authentication login (Log IN) to remotely control the terminal control server with a remote collaboration server.
◈Claim 5 was abandoned upon payment of the set registration fee.◈ AI direct fire short-circuit prediction controller, QUANTUM TLS, information protection module, monitor speaker, terminal control server, PA broadcasting device, smart broadcasting device including AV broadcasting device and QUANTUM KEY authentication server, manager smartphone, OTP NFC, multi-use facility It consists of a control server, a remote collaboration server, a wired speaker, and an emergency broadcasting terminal.

The QUANTUM KEY authentication server, QUANTUM TLS, OTP NFC, and collaboration server are configured to include the same pseudo-random number generator (PRNG) to generate the same pseudo-random number.
When the civil defense alarm terminal or multi-use facility control server receives emergency broadcast broadcasting data,
The QUANTUM KEY authentication server includes the same pseudo-random number generator (PRNG) as QUANTUM TLS, and uses the pseudo-random number (PRN) generated through the pseudo-random number generator (PRNG) as a seed, and the terminal private key through a key generation program. Create (PRIVATE KEY);
The QUANTUM KEY authentication server transmits the QUANTUM KEY authentication server ID Address to the QUANTUM TLS inside the smart broadcasting device;
QUANTUM TLS receives the ID address, checks the ID address of the QUANTUM KEY authentication server, and uses the pseudo-random number (PRN) generated through the same pseudo-random number generator (PRNG) as the QUANTUM KEY authentication server as a seed. Generates a pair of terminal private keys identical to the terminal private key (PRIVATE KEY) generated by the QUANTUM KEY authentication server through the same key generation program as the generation program;
QUANTUM TLS encrypts the terminal private key (PRIVATE KEY) through a key generation program using a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG) as a seed. Generate a terminal OTP public key (PUBLIC KEY);
QUANTUM TLS transmits the terminal OTP public key (PUBLIC KEY) to the MAC address of the QUANTUM KEY authentication server;
The QUANTUM KEY authentication server transmits the terminal OTP public key (PUBLIC KEY) to the multi-use facility control server;
The multi-use facility control server encrypts the emergency broadcast broadcast data with the terminal OTP PUBLIC KEY and transmits it through QUANTUM TLS;
QUANTUM TLS decrypts the emergency broadcast broadcast data encrypted with the terminal OTP public key (PUBLIC KEY) with the terminal private key (PRIVATE KEY) and transmits it to the terminal control server;
The terminal control server inside the smart broadcasting device broadcasts the emergency broadcasting data by transmitting it to a wired speaker through either a PA broadcasting device or an AV broadcasting device connected through a wired network network; And
The terminal control server inside the smart broadcasting system broadcasts emergency broadcasting broadcasting data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency radio repeater installed in the EPS room on each floor of the multi-use facility;

The terminal control server performs a line ping test through an AI direct fire short prediction controller and transmits a ping test result report to the manager's smartphone;

When the terminal control server receives a fire event from the fire reception team, in order to perform emergency broadcasting of the fire occurrence direct fire through the AI direct fire short-circuit prediction controller,
The AI direct firing short-circuit prediction controller includes an AI mode selection ON/OFF button, and when the AI mode selection button is in the ON state, when a short-circuit layer occurs during the sequential emergency broadcast of the direct fire, it automatically connects to the next emergency broadcast;
When the emergency broadcasting terminal receives and broadcasts emergency broadcasting broadcasting data while the AI mode selection button of the AI direct fire short-circuit prediction controller is OFF, the sound data received through the internal monitor microphone is transmitted to the internal information protection module of the smart broadcasting device. ;
The information protection module transmits the sound data to the terminal control server only when the emergency broadcasting broadcasting data is transmitted through the emergency broadcasting terminal;
The terminal control server broadcasts the received sound data to the monitor speaker only when the emergency broadcast broadcast data is transmitted through the emergency broadcast terminal;

The emergency broadcasting terminal installed inside/outside the building consists of a wired terminal block, wireless receiver, amplification unit, speaker unit, monitor microphone, AC supply unit, storage battery, drive unit, power control unit, and main control unit.
A wired terminal block to which a fire protection cable for transmitting emergency broadcasting broadcast data is connected;
A radio receiver configured to receive a radio frequency modulated with emergency broadcast broadcast data;
An amplifying unit for amplifying the radio frequency modulated by emergency broadcasting broadcasting data;
A speaker unit for converting a radio frequency modulated with emergency broadcasting data into sound;
The AC supply unit is an AC supply unit that receives AC power at all times and supplies driving power to the driving unit;
The storage battery receives power from the AC supply unit and charges it to supply power to the driving unit;
The driving unit is a driving unit that receives driving power from an AC supply unit or a storage battery and supplies driving power to a wireless receiving unit, an amplifying unit, a speaker unit, a power control unit, a monitor microphone, and a main control unit;
The main control unit composed of a microprocessor controls a wireless receiving unit, an amplifying unit, a speaker unit, an AC supply unit, a driving unit, a monitor microphone, and a power control unit; And
The driving unit supplies driving power to the monitor microphone, generates sound data through the monitor microphone, and transmits it to the information protection module inside the smart broadcasting device only when emergency broadcast broadcast data is received;

The terminal control server includes an emergency broadcasting sequential mode selection ON/OFF button, and when the sequential mode selection button is ON, the emergency broadcasting broadcasting data is sequentially broadcast to the direct fire floor inside the building;
When the sequential mode selection button is in the OFF state, emergency broadcasting broadcast data is broadcast to all floors of the building at once;
The terminal control server includes an emergency broadcast manager mode selection ON/OFF button. When the manager mode selection button is ON, when emergency broadcast broadcast data is received, the emergency broadcast broadcast data reception event is transmitted to the manager's smartphone, but in the OFF state. In the case of, it is not transmitted;

When the manager's smartphone receives the emergency broadcast data reception event and connects to the terminal control server,
QUANTUM TLS is composed of the same pseudo-random number generator (PRNG) as OTP NFC, and uses a pseudo-random number (PRN) that generates the same pseudo-random number (PRN) as the NFC OTP as a seed. Create (PRIVATE KEY);
QUANTUM TLS is a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG). PUBLIC KEY) is created;
The terminal control server transmits the manager OTP public key (PUBLIC KEY) to the manager smartphone;
When the physical OTP NFC is tagged on the manager smartphone, the OTP NFC generates the same pseudorandom number (PRN) generated by QUANTUM TLS through the same pseudorandom number generator (PRNG) as the QUANTUM TLS and transmits it to the manager smartphone;
The manager smartphone generates an OTP manager authentication key that encrypts the pseudo-random number (PRN) with the manager OTP public key received from QUANTUM TLS and transmits it to QUANTUM TLS;
QUANTUM TLS decrypts the OTP administrator authentication key with the administrator's private key (PRIVATE KEY), and in the case of the same pseudo random number (PRN) as the NFC OTP generated through the same pseudo random number generator (PRNG) as the OTP NFC, the terminal control server and the administrator The user authentication login (Log IN) between the smartphones to broadcast the emergency broadcast broadcast data remotely controlled to the terminal control server with the administrator smartphone;

When the remote collaboration server connects to the terminal control server,
QUANTUM TLS is composed of the same pseudo-random number generator (PRNG) as the remote collaboration server, and the pseudo-random number that generates the same pseudo-random number as the remote collaboration server is used as a seed, and a collaboration private key (PRIVATE KEY) through a key generation program. To create;
QUANTUM TLS is a quantum random number that generates unpredictable quantum random numbers through a quantum random number generator (QRNG) and encrypts the collaboration private key (PRIVATE KEY) through a key generation program to generate a collaboration OTP public key (PUBLIC KEY). ;
The terminal control server transmits the collaboration OTP public key (PUBLIC KEY) to the remote collaboration server;
The remote collaboration server generates the same pseudo-random number through the same pseudo-random number generator (PRNG) as the QUANTUM TLS, and generates an OTP collaboration authentication key that encrypts the pseudo-random number with the collaboration OTP public key received from QUANTUM TLS. Send with QUANTUM TLS;
QUANTUM TLS decrypts the OTP collaboration authentication key with the collaboration private key (PRIVATE KEY), and in the case of the same pseudo-random number generated through the same pseudo-random number generator (PRNG) as the remote collaboration server, the user between the terminal control server and the remote collaboration server Smart broadcasting device, characterized in that the authentication login (Log IN) to remotely control the terminal control server with a remote collaboration server.
◈Claim 6 was abandoned upon payment of the set registration fee.◈ The QUANTUM KEY authentication server, QUANTUM TLS, OTP NFC, and collaboration server are configured to include the same pseudo-random number generator (PRNG) to generate the same pseudo-random number.
When the civil defense alarm terminal or multi-use facility control server receives emergency broadcast broadcasting data,
The QUANTUM KEY authentication server includes the same pseudo-random number generator (PRNG) as QUANTUM TLS, and uses the pseudo-random number (PRN) generated through the pseudo-random number generator (PRNG) as a seed, and the terminal private key through a key generation program. Create (PRIVATE KEY);
The QUANTUM KEY authentication server transmits the QUANTUM KEY authentication server ID Address to the QUANTUM TLS inside the smart broadcasting device;
QUANTUM TLS receives the ID address, checks the ID address of the QUANTUM KEY authentication server, and uses the pseudo-random number (PRN) generated through the same pseudo-random number generator (PRNG) as the QUANTUM KEY authentication server as a seed. Generates a pair of terminal private keys identical to the terminal private key (PRIVATE KEY) generated by the QUANTUM KEY authentication server through the same key generation program as the generation program;
QUANTUM TLS encrypts the terminal private key (PRIVATE KEY) through a key generation program using a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG) as a seed. Generate a terminal OTP public key (PUBLIC KEY);
QUANTUM TLS transmits the terminal OTP public key (PUBLIC KEY) to the MAC address of the QUANTUM KEY authentication server;
The QUANTUM KEY authentication server transmits the terminal OTP public key (PUBLIC KEY) to the multi-use facility control server;
The multi-use facility control server encrypts the emergency broadcast broadcast data with the terminal OTP PUBLIC KEY and transmits it through QUANTUM TLS;
QUANTUM TLS decrypts the emergency broadcast broadcast data encrypted with the terminal OTP public key (PUBLIC KEY) with the terminal private key (PRIVATE KEY) and transmits it to the terminal control server;
The terminal control server inside the smart broadcasting device transmits the emergency broadcasting broadcast data to a wired speaker connected through a wired network network and broadcasts it;
The terminal control server inside the smart broadcasting system broadcasts emergency broadcasting broadcasting data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency radio repeater installed in the EPS room on each floor of the multi-use facility;

The emergency broadcasting terminal installed inside/outside the building consists of a wired terminal block, wireless receiver, amplification unit, speaker unit, monitor microphone, AC supply unit, storage battery, drive unit, power control unit, and main control unit.
A wired terminal block to which a fire protection cable for transmitting emergency broadcasting broadcast data is connected;
A radio receiver configured to receive a radio frequency modulated with emergency broadcast broadcast data;
An amplifying unit for amplifying the radio frequency modulated by emergency broadcasting broadcasting data;
A speaker unit for converting a radio frequency modulated with emergency broadcasting data into sound;
The AC supply unit is an AC supply unit that receives AC power at all times and supplies driving power to the driving unit;
The storage battery receives power from the AC supply unit and charges it to supply power to the driving unit;
The driving unit is a driving unit that receives driving power from an AC supply unit or a storage battery and supplies driving power to a wireless receiving unit, an amplifying unit, a speaker unit, a power control unit, a monitor microphone, and a main control unit;
The main control unit composed of a microprocessor controls a wireless receiving unit, an amplifying unit, a speaker unit, an AC supply unit, a driving unit, a monitor microphone, and a power control unit;

The terminal control server includes an emergency broadcasting sequential mode selection ON/OFF button, and when the sequential mode selection button is ON, the emergency broadcasting broadcasting data is sequentially broadcast to the inner floor of the building;
When the sequential mode selection button is in the OFF state, emergency broadcasting broadcast data is broadcast to all floors of the building at once;
The terminal control server includes an emergency broadcast manager mode selection ON/OFF button. When the manager mode selection button is ON, when emergency broadcast broadcast data is received, the emergency broadcast broadcast data reception event is transmitted to the manager's smartphone, but in the OFF state. In the case of, it is not transmitted;

When the manager's smartphone receives the emergency broadcast data reception event and connects to the terminal control server,
QUANTUM TLS is composed of the same pseudo-random number generator (PRNG) as OTP NFC, and uses a pseudo-random number (PRN) that generates the same pseudo-random number (PRN) as the NFC OTP as a seed. Create (PRIVATE KEY);
QUANTUM TLS is a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG). PUBLIC KEY) is created;
The terminal control server transmits the manager OTP public key (PUBLIC KEY) to the manager smartphone;
When the physical OTP NFC is tagged on the manager smartphone, the OTP NFC generates the same pseudorandom number (PRN) generated by QUANTUM TLS through the same pseudorandom number generator (PRNG) as the QUANTUM TLS and transmits it to the manager smartphone;
The manager smartphone generates an OTP manager authentication key that encrypts the pseudo-random number (PRN) with the manager OTP public key received from QUANTUM TLS and transmits it to QUANTUM TLS;
QUANTUM TLS decrypts the OTP administrator authentication key with the administrator's private key (PRIVATE KEY), and in the case of the same pseudo random number (PRN) as the NFC OTP generated through the same pseudo random number generator (PRNG) as the OTP NFC, the terminal control server and the administrator The user authentication login (Log IN) between the smartphones to broadcast the emergency broadcast broadcast data remotely controlled to the terminal control server with the administrator smartphone;

When the remote collaboration server connects to the terminal control server,
QUANTUM TLS is composed of the same pseudo-random number generator (PRNG) as the remote collaboration server, and the pseudo-random number that generates the same pseudo-random number as the remote collaboration server is used as a seed, and a collaboration private key (PRIVATE KEY) through a key generation program. To create;
QUANTUM TLS is a quantum random number that generates unpredictable quantum random numbers through a quantum random number generator (QRNG) and encrypts the collaboration private key (PRIVATE KEY) through a key generation program to generate a collaboration OTP public key (PUBLIC KEY). ;
The terminal control server transmits the collaboration OTP public key (PUBLIC KEY) to the remote collaboration server;
The remote collaboration server generates the same pseudo-random number through the same pseudo-random number generator (PRNG) as the QUANTUM TLS, and generates an OTP collaboration authentication key that encrypts the pseudo-random number with the collaboration OTP public key received from QUANTUM TLS. Send with QUANTUM TLS;
QUANTUM TLS decrypts the OTP collaboration authentication key with the collaboration private key (PRIVATE KEY), and in the case of the same pseudo-random number generated through the same pseudo-random number generator (PRNG) as the remote collaboration server, the user between the terminal control server and the remote collaboration server Smart broadcasting device, characterized in that the authentication login (Log IN) to remotely control the terminal control server with a remote collaboration server.
The QUANTUM KEY authentication server, QUANTUM TLS, and collaboration server are configured to include the same pseudo-random number generator (PRNG) to generate the same pseudo-random number.
When the civil defense alarm terminal or multi-use facility control server receives emergency broadcast broadcasting data,
The QUANTUM KEY authentication server includes the same pseudo-random number generator (PRNG) as QUANTUM TLS, and uses the pseudo-random number (PRN) generated through the pseudo-random number generator (PRNG) as a seed, and the terminal private key through a key generation program. Create (PRIVATE KEY);
The QUANTUM KEY authentication server transmits the QUANTUM KEY authentication server ID Address to the QUANTUM TLS inside the smart broadcasting device;
QUANTUM TLS receives the ID address, checks the ID address of the QUANTUM KEY authentication server, and uses the pseudo-random number (PRN) generated through the same pseudo-random number generator (PRNG) as the QUANTUM KEY authentication server as a seed. Generates a pair of terminal private keys identical to the terminal private key (PRIVATE KEY) generated by the QUANTUM KEY authentication server through the same key generation program as the generation program;
QUANTUM TLS encrypts the terminal private key (PRIVATE KEY) through a key generation program using a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG) as a seed. Generate a terminal OTP public key (PUBLIC KEY);
QUANTUM TLS transmits the terminal OTP public key (PUBLIC KEY) to the MAC address of the QUANTUM KEY authentication server;
The QUANTUM KEY authentication server transmits the terminal OTP public key (PUBLIC KEY) to the multi-use facility control server;
The multi-use facility control server encrypts the emergency broadcast broadcast data with the terminal OTP PUBLIC KEY and transmits it through QUANTUM TLS;
QUANTUM TLS decrypts the emergency broadcast broadcast data encrypted with the terminal OTP public key (PUBLIC KEY) with the terminal private key (PRIVATE KEY) and transmits it to the terminal control server;
The terminal control server inside the smart broadcasting device transmits the emergency broadcasting broadcast data to a wired speaker connected through a wired network network and broadcasts it;
The terminal control server inside the smart broadcasting system broadcasts emergency broadcasting broadcasting data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency radio repeater installed in the EPS room on each floor of the multi-use facility;

The emergency broadcasting terminal installed inside/outside the building consists of a wired terminal block, wireless receiver, amplification unit, speaker unit, monitor microphone, AC supply unit, storage battery, drive unit, power control unit, and main control unit.
A wired terminal block to which a fire protection cable for transmitting emergency broadcasting broadcast data is connected;
A radio receiver configured to receive a radio frequency modulated with emergency broadcast broadcast data;
An amplifying unit for amplifying the radio frequency modulated by emergency broadcasting broadcasting data;
A speaker unit for converting a radio frequency modulated with emergency broadcasting data into sound;
The AC supply unit is an AC supply unit that receives AC power at all times and supplies driving power to the driving unit;
The storage battery receives power from the AC supply unit and charges it to supply power to the driving unit;
The driving unit is a driving unit that receives driving power from an AC supply unit or a storage battery and supplies driving power to a wireless receiving unit, an amplifying unit, a speaker unit, a power control unit, a monitor microphone, and a main control unit;
The main control unit composed of a microprocessor controls a wireless receiving unit, an amplifying unit, a speaker unit, an AC supply unit, a driving unit, a monitor microphone, and a power control unit; And

The terminal control server includes an emergency broadcasting sequential mode selection ON/OFF button, and when the sequential mode selection button is ON, the emergency broadcasting broadcasting data is sequentially broadcast to the inner floor of the building;
When the sequential mode selection button is in the OFF state, emergency broadcasting broadcast data is broadcast to all floors of the building at once;

When the remote collaboration server connects to the terminal control server,
QUANTUM TLS is composed of the same pseudo-random number generator (PRNG) as the remote collaboration server, and the pseudo-random number that generates the same pseudo-random number as the remote collaboration server is used as a seed, and a collaboration private key (PRIVATE KEY) through a key generation program. To create;
QUANTUM TLS is a quantum random number that generates unpredictable quantum random numbers through a quantum random number generator (QRNG) and encrypts the collaboration private key (PRIVATE KEY) through a key generation program to generate a collaboration OTP public key (PUBLIC KEY). ;
The terminal control server transmits the collaboration OTP public key (PUBLIC KEY) to the remote collaboration server;
The remote collaboration server generates the same pseudo-random number through the same pseudo-random number generator (PRNG) as the QUANTUM TLS, and generates an OTP collaboration authentication key that encrypts the pseudo-random number with the collaboration OTP public key received from QUANTUM TLS. Send with QUANTUM TLS;
QUANTUM TLS decrypts the OTP collaboration authentication key with the collaboration private key (PRIVATE KEY), and in the case of the same pseudo-random number generated through the same pseudo-random number generator (PRNG) as the remote collaboration server, the user between the terminal control server and the remote collaboration server Smart broadcasting device, characterized in that the authentication login (Log IN) to remotely control the terminal control server with a remote collaboration server.
The QUANTUM KEY authentication server, QUANTUM TLS, and OTP NFC are configured to include the same pseudo-random number generator (PRNG) to generate the same pseudo-random number.
When the civil defense alarm terminal or multi-use facility control server receives emergency broadcast broadcasting data,
The QUANTUM KEY authentication server includes the same pseudo-random number generator (PRNG) as QUANTUM TLS, and uses the pseudo-random number (PRN) generated through the pseudo-random number generator (PRNG) as a seed, and the terminal private key through a key generation program. Create (PRIVATE KEY);
The QUANTUM KEY authentication server transmits the QUANTUM KEY authentication server ID Address to the QUANTUM TLS inside the smart broadcasting device;
QUANTUM TLS receives the ID address, checks the ID address of the QUANTUM KEY authentication server, and uses the pseudo-random number (PRN) generated through the same pseudo-random number generator (PRNG) as the QUANTUM KEY authentication server as a seed. Generates a pair of terminal private keys identical to the terminal private key (PRIVATE KEY) generated by the QUANTUM KEY authentication server through the same key generation program as the generation program;
QUANTUM TLS encrypts the terminal private key (PRIVATE KEY) through a key generation program using a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG) as a seed. Generate a terminal OTP public key (PUBLIC KEY);
QUANTUM TLS transmits the terminal OTP public key (PUBLIC KEY) to the MAC address of the QUANTUM KEY authentication server;
The QUANTUM KEY authentication server transmits the terminal OTP public key (PUBLIC KEY) to the multi-use facility control server;
The multi-use facility control server encrypts the emergency broadcast broadcast data with the terminal OTP PUBLIC KEY and transmits it through QUANTUM TLS;
QUANTUM TLS decrypts the emergency broadcast broadcast data encrypted with the terminal OTP public key (PUBLIC KEY) with the terminal private key (PRIVATE KEY) and transmits it to the terminal control server;
The terminal control server inside the smart broadcasting device transmits the emergency broadcasting broadcast data to a wired speaker connected through a wired network network and broadcasts it;
The terminal control server inside the smart broadcasting system broadcasts emergency broadcasting broadcasting data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency radio repeater installed in the EPS room on each floor of the multi-use facility;

The emergency broadcasting terminal installed inside/outside the building consists of a wired terminal block, wireless receiver, amplification unit, speaker unit, monitor microphone, AC supply unit, storage battery, drive unit, power control unit, and main control unit.
A wired terminal block to which a fire protection cable for transmitting emergency broadcasting broadcast data is connected;
A radio receiver configured to receive a radio frequency modulated with emergency broadcast broadcast data;
An amplifying unit for amplifying the radio frequency modulated by emergency broadcasting broadcasting data;
A speaker unit for converting a radio frequency modulated with emergency broadcasting data into sound;
The AC supply unit is an AC supply unit that receives AC power at all times and supplies driving power to the driving unit;
The storage battery receives power from the AC supply unit and charges it to supply power to the driving unit;
The driving unit is a driving unit that receives driving power from an AC supply unit or a storage battery and supplies driving power to a wireless receiving unit, an amplifying unit, a speaker unit, a power control unit, a monitor microphone, and a main control unit;
The main control unit composed of a microprocessor controls a wireless receiving unit, an amplifying unit, a speaker unit, an AC supply unit, a driving unit, a monitor microphone, and a power control unit;

The terminal control server includes an emergency broadcasting sequential mode selection ON/OFF button, and when the sequential mode selection button is ON, the emergency broadcasting broadcasting data is sequentially broadcast to the inner floor of the building;
When the sequential mode selection button is in the OFF state, emergency broadcasting broadcast data is broadcast to all floors of the building at once;
The terminal control server includes an emergency broadcast manager mode selection ON/OFF button. When the manager mode selection button is ON, when emergency broadcast broadcast data is received, the emergency broadcast broadcast data reception event is transmitted to the manager's smartphone, but in the OFF state. In the case of, it is not transmitted;

When the manager's smartphone receives the emergency broadcast data reception event and connects to the terminal control server,
QUANTUM TLS is composed of the same pseudo-random number generator (PRNG) as OTP NFC, and uses a pseudo-random number (PRN) that generates the same pseudo-random number (PRN) as the NFC OTP as a seed. Create (PRIVATE KEY);
QUANTUM TLS is a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG). PUBLIC KEY) is created;
The terminal control server transmits the manager OTP public key (PUBLIC KEY) to the manager smartphone;
When the physical OTP NFC is tagged on the manager smartphone, the OTP NFC generates the same pseudorandom number (PRN) generated by QUANTUM TLS through the same pseudorandom number generator (PRNG) as the QUANTUM TLS and transmits it to the manager smartphone;
The manager smartphone generates an OTP manager authentication key that encrypts the pseudo-random number (PRN) with the manager OTP public key received from QUANTUM TLS and transmits it to QUANTUM TLS;
QUANTUM TLS decrypts the OTP administrator authentication key with the administrator's private key (PRIVATE KEY), and in the case of the same pseudo-random number (PRN) as the NFC OTP generated through the same pseudo-random number generator (PRNG) as the OTP NFC, the terminal control server and the administrator A smart broadcasting device, characterized in that the user authentication login (Log IN) between smartphones broadcasts emergency broadcast broadcast data remotely controlled by a terminal control server with an administrator smartphone.
QUANTUM KEY authentication server, QUANTUM TLS, is configured to include the same pseudo-random number generator (PRNG) to generate the same pseudo-random number. When the center control server receives emergency broadcast broadcast data,
The QUANTUM KEY authentication server includes the same pseudo-random number generator (PRNG) as QUANTUM TLS, and uses the pseudo-random number (PRN) generated through the pseudo-random number generator (PRNG) as a seed, and the terminal private key through a key generation program. Create (PRIVATE KEY);
The QUANTUM KEY authentication server transmits the QUANTUM KEY authentication server ID Address to the QUANTUM TLS inside the smart broadcasting device;
QUANTUM TLS receives the ID address, checks the ID address of the QUANTUM KEY authentication server, and uses the pseudo-random number (PRN) generated through the same pseudo-random number generator (PRNG) as the QUANTUM KEY authentication server as a seed. Generates a pair of terminal private keys identical to the terminal private key (PRIVATE KEY) generated by the QUANTUM KEY authentication server through the same key generation program as the generation program;
QUANTUM TLS encrypts the terminal private key (PRIVATE KEY) through a key generation program using a quantum random number (QRN) that generates a random unpredictable quantum random number (QRN) through a quantum random number generator (QRNG) as a seed. Generate a terminal OTP public key (PUBLIC KEY);
QUANTUM TLS transmits the terminal OTP public key (PUBLIC KEY) to the MAC address of the QUANTUM KEY authentication server;
The QUANTUM KEY authentication server transmits the terminal OTP public key (PUBLIC KEY) to the center control server;
The center control server encrypts the emergency broadcast broadcast data with the terminal OTP public key (PUBLIC KEY) and transmits it through QUANTUM TLS;
QUANTUM TLS decrypts the emergency broadcast broadcast data encrypted with the terminal OTP public key (PUBLIC KEY) with the terminal private key (PRIVATE KEY) and transmits it to the terminal control server;
The terminal control server inside the smart broadcasting device transmits the emergency broadcasting broadcast data to a wired speaker connected through a wired network network and broadcasts it;
The smart broadcasting device internal terminal control server broadcasts emergency broadcasting broadcasting data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency wireless repeater installed in the EPS room on each floor of a multi-use facility.
◈ Claim 10 was abandoned upon payment of the set registration fee. AI direct fire short-circuit prediction controller, QUANTUM TLS (Transport Layer Security), multi-communication interface, information protection module, monitor speaker, terminal control server, PA broadcasting device, smart broadcasting device including AV broadcasting device and QUANTUM KEY authentication server, multiplex It consists of a facility control server, a multi-use facility alarm terminal, a wired speaker, and an emergency broadcasting terminal.

The QUANTUM KEY authentication server, QUANTUM Transport Layer Security (TLS), includes the same pseudo-random number generator (PRNG), and uses the same pseudo-random number as a random number seed as a symmetric cryptographic algorithm. Algorithm), the QUANTUM KEY authentication server, QUANTUM TLS (Transport Layer Security) generates the same symmetric key (SYMMETRIC KEY);

When the QUANTUM KEY authentication server connects to QUANTUM TLS (Transport Layer Security),
QUANTUM Transport Layer Security (TLS) is a different prime number among random unpredictable quantum random numbers (QRN) generated by a quantum random number generator (QRNG). algorithm)'s private key (PRIVATE KEY) and public key (PUBLIC KEY) pair;
QUANTUM Transport Layer Security (TLS) transmits a public key (PUBLIC KEY) to the QUANTUM KEY authentication server;

Civil defense alarm terminals that can be remotely controlled from the Korea Air and Space Operations Center (KAOC) or Article 33, Paragraph 3 of the Framework Act on Civil Defense, Article 55-2 of the Enforcement Decree of the same Act (propagation of civil defense warnings) "Buildings subject to warning transmission When the multi-use facility control server receives emergency broadcast broadcasting data (disaster boundary, disaster risk, air raid, chemical room, TTS (Text To Speech) data) for the inside/outside of public buildings such as schools, government offices, etc.,

The multi-communication interface is a multi-communication interface capable of transmitting and receiving through the self-network, national disaster network, DMB, MMS, Internet, UHD TV, satellite, radio, PSTN, PS-LTE, LoRA, NB-IoT, and SigFox communication networks;
The QUANTUM KEY authentication server is a smart broadcasting device through one or more communication networks among self-network, national disaster network, DMB, MMS, Internet, UHD TV, satellite, radio, PSTN, PS-LTE, LoRA, NB-IoT, and SigFox. After encrypting the QUANTUM KEY authentication server ID (IDentification) with a symmetric key (SYMMETRIC KEY) as a communication interface, transmits the terminal QUANTUM KEY encrypted with the PUBLIC KEY received from the QUANTUM Transport Layer Security (TLS);
The multi-communication interface transmits the terminal QUANTUM KEY to QUANTUM Transport Layer Security (TLS);
QUANTUM Transport Layer Security (TLS) receives the terminal QUANTUM KEY encrypted with the public key, decrypts it with the PRIVATE KEY, and then converts the ID (IDentification) encrypted with the SYMMETRIC KEY. When the ID (IDentification) decrypted with SYMMETRIC KEY) is confirmed with the QUANTUM KEY authentication server ID (IDentification), the network log-in is connected;

The multi-use facility control server encrypts emergency broadcasting broadcasting data (disaster boundary, disaster risk, air raid, chemical room, TTS (Text To Speech) data) with a public key (PUBLIC KEY) and uses QUANTUM TLS (Transport Layer Security) through a multi-communication interface. ) To send;
QUANTUM Transport Layer Security (TLS) decrypts emergency broadcast broadcast data (disaster boundary, disaster risk, air raid, Hwasaengbang, TTS (Text To Speech) data) encrypted with a public key (PUBLIC KEY) with a private key (PRIVATE KEY). Transmits to the terminal control server;
The terminal control server transmits emergency broadcasting broadcasting data (disaster alert, disaster risk, air raid, chemistry room, TTS (Text To Speech) data) to the multi-use facility alarm terminal;
The multi-use facility alarm terminal transmits emergency broadcast broadcast data (disaster boundary, disaster risk, air raid, chemical room, TTS (Text To Speech) data) through any one or more of sound, voice, or video through a PA broadcast device or AV broadcast device. Express;

The terminal control server inside the smart broadcasting device transmits TTS (Text To Speech) emergency broadcasting data among the emergency broadcasting data to a wired speaker connected through a wired network for direct broadcasting;
The internal terminal control server of the smart broadcasting device directly broadcasts TTS (Text To Speech) emergency broadcasting broadcast data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency radio repeater installed in the EPS room on each floor of the multi-use facility;

The terminal control server periodically performs a line ping test through the AI direct firing short-circuit prediction controller and transmits a ping test result report to the manager's smartphone;

When the terminal control server receives a fire event from the fire reception team, in performing the emergency broadcast of the fire occurrence sequentially through the AI direct fire short-circuit prediction controller,
The AI direct firing short-circuit prediction controller includes an AI mode selection ON/OFF button, and when the AI mode selection button is in the ON state, when a short-circuit layer occurs during the sequential emergency broadcast of the direct fire, it automatically connects to the next emergency broadcast;
When the emergency broadcasting terminal receives and broadcasts emergency broadcasting broadcasting data while the AI mode selection button of the AI direct fire short-circuit prediction controller is OFF, the sound data received through the internal monitor microphone is transmitted to the internal information protection module of the smart broadcasting device. ;
The information protection module transmits the sound data to the terminal control server only when the emergency broadcasting broadcasting data is transmitted through the emergency broadcasting terminal;
The terminal control server broadcasts the received sound data to the monitor speaker only when the emergency broadcast broadcast data is transmitted through the emergency broadcast terminal;

The emergency broadcasting terminal installed inside/outside the building consists of a wired terminal block, wireless receiver, amplification unit, speaker unit, monitor microphone, AC supply unit, storage battery, super capacitor, driving unit, power control unit, and main control unit.
A wired terminal block to which a fire protection cable for transmitting emergency broadcasting broadcast data is connected;
A radio receiver configured to receive a radio frequency modulated with emergency broadcast broadcast data;
An amplifying unit for amplifying the radio frequency modulated by emergency broadcasting broadcasting data;
A speaker unit for converting a radio frequency modulated with emergency broadcasting data into sound;
The AC supply unit is an AC supply unit that receives AC power at all times and supplies driving power to the driving unit;
The storage battery receives power from the AC supply unit and charges it to supply power to the driving unit;
When it is not possible to supply constant power through the AC supply unit, unlike a storage battery, a charged supercondenser is a supercondenser that supplies power to the driving unit for one-time emergency broadcasting by using the characteristic that natural discharge does not occur;
The driving unit is a driving unit that receives driving power from an AC supply unit, a storage battery or a super capacitor and supplies driving power to a wireless receiver, an amplification unit, a speaker unit, a power control unit, a monitor microphone, and a main control unit;
The main control unit composed of a microprocessor controls a wireless receiving unit, an amplifying unit, a speaker unit, an AC supply unit, a super capacitor, a driving unit, a monitor microphone, and a power control unit; And
The main control unit controls the power control unit and receives AC power at all times and supplies driving power to the AC supply unit through the storage battery, but controls the power control unit when it is impossible to supply the driving power to the AC supply unit due to deterioration of the performance of the storage battery or a power outage or fire. Thus supplying driving power through a super capacitor;
The driving unit supplies driving power to the monitor microphone, generates sound data through the monitor microphone, and transmits it to the information protection module inside the smart broadcasting device only when emergency broadcast broadcast data is received;

The terminal control server includes emergency broadcasting sequential mode selection ON/OFF buttons, and when the sequential mode selection button is ON, emergency broadcasting broadcasting data (disaster alert, disaster risk, air raid, hwasaengbang, TTS (Text To Speech) data) ) Is sequentially broadcast to the direct fire floor inside the building;
When the sequential mode selection button is in the OFF state, emergency broadcasting broadcast data (disaster alert, disaster risk, air raid, chemistry room, TTS (Text To Speech) data) is broadcast to all floors of the building at once;
The terminal control server includes emergency broadcasting manager mode selection ON/OFF buttons, and when the administrator mode selection button is ON, emergency broadcasting broadcasting data (disaster alert, disaster risk, air raid, hwasaengbang, TTS (Text To Speech) data ) Upon reception, a smart broadcast device closed self-network system, characterized in that transmitting an emergency broadcast broadcast data reception alarm to the manager's smartphone.
◈ Claim 11 was abandoned upon payment of the set registration fee. AI direct fire short-circuit prediction controller, QUANTUM TLS (Transport Layer Security), multi-communication interface, information protection module, monitor speaker, terminal control server, PA broadcasting device, smart broadcasting device including AV broadcasting device and QUANTUM KEY authentication server, multiplex It consists of a facility control server, a multi-use facility alarm terminal, a wired speaker, and an emergency broadcasting terminal.

The QUANTUM KEY authentication server, QUANTUM Transport Layer Security (TLS), includes the same pseudo-random number generator (PRNG), and uses the same pseudo-random number as a random number seed as a symmetric cryptographic algorithm. Algorithm), the QUANTUM KEY authentication server, QUANTUM TLS (Transport Layer Security) generates the same symmetric key (SYMMETRIC KEY);

When the QUANTUM KEY authentication server connects to QUANTUM TLS (Transport Layer Security),
QUANTUM Transport Layer Security (TLS) is a different prime number among random unpredictable quantum random numbers (QRN) generated by a quantum random number generator (QRNG). algorithm)'s private key (PRIVATE KEY) and public key (PUBLIC KEY) pair;
QUANTUM Transport Layer Security (TLS) transmits a public key (PUBLIC KEY) to the QUANTUM KEY authentication server;

Civil defense alarm terminals that can be remotely controlled from the Korea Air and Space Operations Center (KAOC) or Article 33, Paragraph 3 of the Framework Act on Civil Defense, Article 55-2 of the Enforcement Decree of the same Act (propagation of civil defense warnings) "Buildings subject to warning transmission When the multi-use facility control server receives emergency broadcast broadcasting data (disaster boundary, disaster risk, air raid, chemical room, TTS (Text To Speech) data) for the inside/outside of public buildings such as schools, government offices, etc.,

The multi-communication interface is a multi-communication interface capable of transmitting and receiving through the self-network, national disaster network, DMB, MMS, Internet, UHD TV, satellite, radio, PSTN, PS-LTE, LoRA, NB-IoT, and SigFox communication networks;
The QUANTUM KEY authentication server is a smart broadcasting device through one or more communication networks among self-network, national disaster network, DMB, MMS, Internet, UHD TV, satellite, radio, PSTN, PS-LTE, LoRA, NB-IoT, and SigFox. After encrypting the QUANTUM KEY authentication server ID (IDentification) with a symmetric key (SYMMETRIC KEY) as a communication interface, transmits the terminal QUANTUM KEY encrypted with the PUBLIC KEY received from the QUANTUM Transport Layer Security (TLS);
The multi-communication interface transmits the terminal QUANTUM KEY to QUANTUM Transport Layer Security (TLS);
The QUANTUM TLS (Transport Layer Security) receives the terminal QUANTUM KEY and logs in to the network when the ID (IDentification) decrypted with the PRIVATE KEY and SYMMETRIC KEY is verified as the user ID (IDentification). ) Connect;

The multi-use facility control server encrypts emergency broadcasting broadcasting data (disaster boundary, disaster risk, air raid, chemical room, TTS (Text To Speech) data) with a public key (PUBLIC KEY) and uses QUANTUM TLS (Transport Layer Security) through a multi-communication interface. ) To send;
QUANTUM Transport Layer Security (TLS) decrypts emergency broadcast broadcast data (disaster boundary, disaster risk, air raid, Hwasaengbang, TTS (Text To Speech) data) encrypted with a public key (PUBLIC KEY) with a private key (PRIVATE KEY). Transmits to the terminal control server;
The terminal control server transmits emergency broadcasting broadcasting data (disaster alert, disaster risk, air raid, chemistry room, TTS (Text To Speech) data) to the multi-use facility alarm terminal;
The multi-use facility alarm terminal transmits emergency broadcast broadcast data (disaster boundary, disaster risk, air raid, chemical room, TTS (Text To Speech) data) through any one or more of sound, voice, or video through a PA broadcast device or AV broadcast device. Express;

The terminal control server inside the smart broadcasting device transmits TTS (Text To Speech) emergency broadcasting data among the emergency broadcasting data to a wired speaker connected through a wired network for direct broadcasting;
The internal terminal control server of the smart broadcasting device directly broadcasts TTS (Text To Speech) emergency broadcasting broadcast data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency radio repeater installed in the EPS room on each floor of the multi-use facility;

The terminal control server periodically performs a line ping test through the AI direct firing short-circuit prediction controller and transmits a ping test result report to the manager's smartphone;

When the terminal control server receives a fire event from the fire reception team, in performing the emergency broadcast of the fire occurrence sequentially through the AI direct fire short-circuit prediction controller,
The AI direct firing short-circuit prediction controller includes an AI mode selection ON/OFF button, and when the AI mode selection button is in the ON state, when a short-circuit layer occurs during the sequential emergency broadcast of the direct fire, it automatically connects to the next emergency broadcast;
When the emergency broadcasting terminal receives and broadcasts emergency broadcasting broadcasting data while the AI mode selection button of the AI direct fire short-circuit prediction controller is OFF, the sound data received through the internal monitor microphone is transmitted to the internal information protection module of the smart broadcasting device. ;
The information protection module transmits the sound data to the terminal control server only when the emergency broadcasting broadcasting data is transmitted through the emergency broadcasting terminal;
The terminal control server broadcasts the received sound data to the monitor speaker only when the emergency broadcast broadcast data is transmitted through the emergency broadcast terminal;

The emergency broadcasting terminal installed inside/outside the building consists of a wired terminal block, wireless receiver, amplification unit, speaker unit, monitor microphone, AC supply unit, storage battery, super capacitor, driving unit, power control unit, and main control unit.
A wired terminal block to which a fire protection cable for transmitting emergency broadcasting broadcast data is connected;
A radio receiver configured to receive a radio frequency modulated with emergency broadcast broadcast data;
An amplifying unit for amplifying the radio frequency modulated by emergency broadcasting broadcasting data;
A speaker unit for converting a radio frequency modulated with emergency broadcasting data into sound;
The AC supply unit is an AC supply unit that receives AC power at all times and supplies driving power to the driving unit;
The storage battery receives power from the AC supply unit and charges it to supply power to the driving unit;
When it is not possible to supply constant power through the AC supply unit, unlike a storage battery, a charged supercondenser is a supercondenser that supplies power to the driving unit for one-time emergency broadcasting by using the characteristic that natural discharge does not occur;
The driving unit is a driving unit that receives driving power from an AC supply unit, a storage battery or a super capacitor and supplies driving power to a wireless receiver, an amplification unit, a speaker unit, a power control unit, a monitor microphone, and a main control unit;
The main control unit composed of a microprocessor controls a wireless receiving unit, an amplifying unit, a speaker unit, an AC supply unit, a super capacitor, a driving unit, a monitor microphone, and a power control unit; And
The main control unit controls the power control unit and receives AC power at all times and supplies driving power to the AC supply unit through the storage battery, but controls the power control unit when it is impossible to supply the driving power to the AC supply unit due to deterioration of the performance of the storage battery or a power outage or fire. Thus supplying driving power through a super capacitor;
The driving unit supplies driving power to the monitor microphone, generates sound data through the monitor microphone, and transmits it to the information protection module inside the smart broadcasting device only when emergency broadcast broadcast data is received;

The terminal control server includes emergency broadcasting sequential mode selection ON/OFF buttons, and when the sequential mode selection button is ON, emergency broadcasting broadcasting data (disaster alert, disaster risk, air raid, hwasaengbang, TTS (Text To Speech) data) ) Is sequentially broadcast to the inner floors of the building;
When the sequential mode selection button is in the OFF state, emergency broadcasting broadcast data (disaster alert, disaster risk, air raid, chemistry room, TTS (Text To Speech) data) is broadcast to all floors of the building at once;
The terminal control server includes emergency broadcasting manager mode selection ON/OFF buttons, and when the administrator mode selection button is ON, emergency broadcasting broadcasting data (disaster alert, disaster risk, air raid, hwasaengbang, TTS (Text To Speech) data) ) When receiving the smart broadcasting device, characterized in that transmitting the emergency broadcasting broadcast data reception alarm to the manager's smartphone.
AI direct fire short-circuit prediction controller, QUANTUM TLS, multi-communication interface, information protection module, monitor speaker, terminal control server, PA broadcasting device, smart broadcasting device including AV broadcasting device, QUANTUM KEY authentication server, multi-use facility control server, It consists of a multi-use facility alarm terminal, wired speaker, and emergency broadcasting terminal.

QUANTUM KEY authentication server, QUANTUM TLS, is a random number seed that includes the same pseudo-random number generator (PRNG) to generate the same pseudo-random number. Generate;

When the QUANTUM KEY authentication server connects to QUANTUM TLS,
QUANTUM TLS generates a private key (PRIVATE KEY) and public key (PUBLIC KEY) pair of the RSA asymmetric key cryptographic algorithm from different prime numbers among random unpredictable quantum random numbers (QRN) generated by a quantum random number generator (QRNG). ;
QUANTUM TLS transmits a public key (PUBLIC KEY) to the QUANTUM KEY authentication server;

Civil defense alarm terminals that can be remotely controlled from the Korea Air and space Operations Center (KAOC) or Article 33, Paragraph 3 of the Framework Act on Civil Defense, Article 55-2 of the Enforcement Decree of the same Act (propagation of civil defense warnings) "Buildings subject to warning transmission When the multi-use facility control server receives emergency broadcasting broadcasting data for inside/outside public buildings such as schools, government offices, etc.,

The multi-communication interface is a multi-communication interface capable of transmitting and receiving through the self-network, national disaster network, DMB, MMS, Internet, UHD TV, satellite, radio, PSTN, PS-LTE, LoRA, NB-IoT, and SigFox communication networks;
The QUANTUM KEY authentication server is a smart broadcasting device through one or more communication networks among self-network, national disaster network, DMB, MMS, Internet, UHD TV, satellite, radio, PSTN, PS-LTE, LoRA, NB-IoT, and SigFox. After encrypting the QUANTUM KEY authentication server ID (IDentification) with a symmetric key (SYMMETRIC KEY) through the communication interface, transmits the terminal QUANTUM KEY encrypted with the public key (PUBLIC KEY) received from QUANTUM TLS;
The multi-communication interface transmits the terminal QUANTUM KEY to QUANTUM TLS;
QUANTUM TLS receives the terminal QUANTUM KEY and connects to the network network login (Log-In) when the ID (IDentification) decrypted with a PRIVATE KEY and a SYMMETRIC KEY is confirmed as a user ID;

The multi-use facility control server encrypts the emergency broadcast broadcast data with a public key and transmits it through the multi-communication interface as QUANTUM TLS;
QUANTUM TLS decrypts emergency broadcast broadcast data encrypted with a public key (PUBLIC KEY) with a private key (PRIVATE KEY) and transmits it to the terminal control server;
The terminal control server transmits the emergency broadcast broadcasting data to the multi-use facility alarm terminal;
The multi-use facility alarm terminal expresses emergency broadcasting broadcasting data through any one or more of sound, audio, or video through a PA broadcasting device or an AV broadcasting device;

The terminal control server inside the smart broadcasting device transmits and broadcasts TTS (Text To Speech) emergency broadcasting broadcast data to a wired speaker connected through a wired network network; And
The terminal control server inside the smart broadcasting device broadcasts TTS (Text To Speech) emergency broadcasting broadcasting data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency radio repeater installed in the EPS room on each floor of the multi-use facility;

The terminal control server periodically performs a line ping test through the AI direct firing short-circuit prediction controller and transmits a ping test result report to the manager's smartphone;

When the terminal control server receives a fire event from the fire reception team, in performing the emergency broadcast of the fire occurrence sequentially through the AI direct fire short-circuit prediction controller,
The AI direct firing short-circuit prediction controller includes an AI mode selection ON/OFF button, and when the AI mode selection button is in the ON state, when a short-circuit layer occurs during the sequential emergency broadcast of the direct fire, it automatically connects to the next emergency broadcast;
When the emergency broadcasting terminal receives and broadcasts emergency broadcasting broadcasting data while the AI mode selection button of the AI direct fire short-circuit prediction controller is OFF, the sound data received through the internal monitor microphone is transmitted to the internal information protection module of the smart broadcasting device. ;
The information protection module transmits the sound data to the terminal control server only when the emergency broadcasting broadcasting data is transmitted through the emergency broadcasting terminal;
The terminal control server broadcasts the received sound data to the monitor speaker only when the emergency broadcast broadcast data is transmitted through the emergency broadcast terminal;

The emergency broadcasting terminal installed inside/outside the building consists of a wired terminal block, wireless receiver, amplification unit, speaker unit, monitor microphone, AC supply unit, storage battery, drive unit, power control unit, and main control unit.
A wired terminal block to which a fire protection cable for transmitting emergency broadcasting broadcast data is connected;
A radio receiver configured to receive a radio frequency modulated with emergency broadcast broadcast data;
An amplifying unit for amplifying the radio frequency modulated by emergency broadcasting broadcasting data;
A speaker unit for converting a radio frequency modulated with emergency broadcasting data into sound;
The AC supply unit is an AC supply unit that receives AC power at all times and supplies driving power to the driving unit;
The storage battery receives power from the AC supply unit and charges it to supply power to the driving unit;
The driving unit is a driving unit that receives driving power from either an AC supply unit or a storage battery and supplies driving power to a wireless receiver, an amplification unit, a speaker unit, a power control unit, a monitor microphone, and a main control unit;
The main control unit composed of a microprocessor controls a wireless receiving unit, an amplifying unit, a speaker unit, an AC supply unit, a driving unit, a monitor microphone, and a power control unit; And
The driving unit supplies driving power to the monitor microphone, generates sound data through the monitor microphone, and transmits it to the information protection module inside the smart broadcasting device only when emergency broadcast broadcast data is received;

The terminal control server includes an emergency broadcasting sequential mode selection ON/OFF button, and when the sequential mode selection button is ON, the emergency broadcasting broadcasting data is sequentially broadcast to the inner floor of the building;
When the sequential mode selection button is in the OFF state, emergency broadcasting broadcast data is broadcast to all floors of the building at once;
The terminal control server includes an emergency broadcast manager mode selection ON/OFF button, and when the manager mode selection button is ON, when receiving emergency broadcast broadcast data, it transmits an emergency broadcast broadcast data reception alarm to the manager's smartphone. Smart broadcasting device.
AI direct fire short-circuit prediction controller, QUANTUM TLS, information protection module, monitor speaker, terminal control server, PA broadcasting device, smart broadcasting device including AV broadcasting device and QUANTUM KEY authentication server, center control server, alarm terminal, wired speaker, It is composed of an emergency broadcasting terminal,

QUANTUM KEY authentication server, QUANTUM TLS, is a random number seed that includes the same pseudo-random number generator (PRNG) to generate the same pseudo-random number. Generate;

When the QUANTUM KEY authentication server connects to QUANTUM TLS,
QUANTUM TLS generates a private key (PRIVATE KEY) and public key (PUBLIC KEY) pair of the RSA asymmetric key cryptographic algorithm from different prime numbers among random unpredictable quantum random numbers (QRN) generated by a quantum random number generator (QRNG). ;
QUANTUM TLS transmits a public key (PUBLIC KEY) to the QUANTUM KEY authentication server;

When the center control server generates emergency broadcast broadcast data,
The QUANTUM KEY authentication server is a terminal control server through the network, and the QUANTUM KEY authentication server ID (IDentification) is encrypted with a symmetric key (SYMMETRIC KEY), and the terminal is encrypted with the public key (PUBLIC KEY) received from QUANTUM TLS. Transmits to QUANTUM TLS;
QUANTUM TLS receives the terminal QUANTUM KEY and logs in the network network between the center control server and the terminal control server when the ID (IDentification) decrypted with the PRIVATE KEY and SYMMETRIC KEY is confirmed as the user ID. (Log-In) connect;

The center control server encrypts the emergency broadcast broadcast data with a public key and transmits it through the network network as QUANTUM TLS;
QUANTUM TLS decrypts emergency broadcast broadcast data encrypted with a public key (PUBLIC KEY) with a private key (PRIVATE KEY) and transmits it to the terminal control server;
The terminal control server transmits emergency broadcast broadcast data to the alarm terminal;
The alarm terminal expresses emergency broadcast broadcast data through any one or more of sound, audio, or video through a PA broadcast device or an AV broadcast device;

The terminal control server inside the smart broadcasting device transmits and broadcasts TTS (Text To Speech) emergency broadcasting broadcast data to a wired speaker connected through a wired network network; And
The terminal control server inside the smart broadcasting device broadcasts TTS (Text To Speech) emergency broadcasting broadcasting data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency radio repeater installed in the EPS room on each floor of the multi-use facility;

The terminal control server periodically performs a line ping test through the AI direct firing short-circuit prediction controller and transmits a ping test result report to the manager's smartphone;

When the terminal control server receives a fire event from the fire reception team, in performing the emergency broadcast of the fire occurrence sequentially through the AI direct fire short-circuit prediction controller,
The AI direct firing short-circuit prediction controller includes an AI mode selection ON/OFF button, and when the AI mode selection button is in the ON state, when a short-circuit layer occurs during the sequential emergency broadcast of the direct fire, it automatically connects to the next emergency broadcast;
When the emergency broadcasting terminal receives and broadcasts emergency broadcasting broadcasting data while the AI mode selection button of the AI direct fire short-circuit prediction controller is OFF, the sound data received through the internal monitor microphone is transmitted to the internal information protection module of the smart broadcasting device. ;
The information protection module transmits the sound data to the terminal control server only when the emergency broadcasting broadcasting data is transmitted through the emergency broadcasting terminal;
The terminal control server broadcasts the received sound data to the monitor speaker only when the emergency broadcast broadcast data is transmitted through the emergency broadcast terminal;

The emergency broadcasting terminal installed inside/outside the building consists of a wired terminal block, wireless receiver, amplification unit, speaker unit, monitor microphone, AC supply unit, storage battery, drive unit, power control unit, and main control unit.
A wired terminal block to which a fire protection cable for transmitting emergency broadcasting broadcast data is connected;
A radio receiver configured to receive a radio frequency modulated with emergency broadcast broadcast data;
An amplifying unit for amplifying the radio frequency modulated by emergency broadcasting broadcasting data;
A speaker unit for converting a radio frequency modulated with emergency broadcasting data into sound;
The AC supply unit is an AC supply unit that receives AC power at all times and supplies driving power to the driving unit;
The storage battery receives power from the AC supply unit and charges it to supply power to the driving unit;
The driving unit is a driving unit that receives driving power from either an AC supply unit or a storage battery and supplies driving power to a wireless receiver, an amplification unit, a speaker unit, a power control unit, a monitor microphone, and a main control unit;
The main control unit composed of a microprocessor controls a wireless receiving unit, an amplifying unit, a speaker unit, an AC supply unit, a driving unit, a monitor microphone, and a power control unit; And
The driving unit supplies driving power to the monitor microphone, generates sound data through the monitor microphone, and transmits it to the information protection module inside the smart broadcasting device only when emergency broadcast broadcast data is received;

The terminal control server includes an emergency broadcasting sequential mode selection ON/OFF button, and when the sequential mode selection button is ON, the emergency broadcasting broadcasting data is sequentially broadcast to the inner floor of the building;
When the sequential mode selection button is in the OFF state, emergency broadcasting broadcast data is broadcast to all floors of the building at once;
The terminal control server includes an emergency broadcast manager mode selection ON/OFF button, and when the manager mode selection button is ON, when receiving emergency broadcast broadcast data, it transmits an emergency broadcast broadcast data reception alarm to the manager's smartphone. Smart broadcasting device.
It is composed of smart broadcasting device including QUANTUM TLS, terminal control server, PA broadcasting device, AV broadcasting device, and QUANTUM KEY authentication server, center control server, wired speaker, and emergency broadcasting terminal.

QUANTUM KEY authentication server, QUANTUM TLS, is a random number seed that includes the same pseudo-random number generator (PRNG) to generate the same pseudo-random number. Generate;

When the QUANTUM KEY authentication server connects to QUANTUM TLS,
QUANTUM TLS generates a private key (PRIVATE KEY) and public key (PUBLIC KEY) pair of the RSA asymmetric key cryptographic algorithm from different prime numbers among random unpredictable quantum random numbers (QRN) generated by a quantum random number generator (QRNG). ;
QUANTUM TLS transmits a public key (PUBLIC KEY) to the QUANTUM KEY authentication server;

When the center control server generates emergency broadcast broadcast data,
The QUANTUM KEY authentication server is a terminal control server through the network, and the QUANTUM KEY authentication server ID (IDentification) is encrypted with a symmetric key (SYMMETRIC KEY), and the terminal is encrypted with the public key (PUBLIC KEY) received from QUANTUM TLS. Transmits to QUANTUM TLS;
QUANTUM TLS receives the terminal QUANTUM KEY and logs in the network network between the center control server and the terminal control server when the ID (IDentification) decrypted with the PRIVATE KEY and SYMMETRIC KEY is confirmed as the user ID. (Log-In) connect;

The center control server encrypts the emergency broadcast broadcast data with a public key and transmits it through the network network as QUANTUM TLS;
QUANTUM TLS decrypts emergency broadcast broadcast data encrypted with a public key (PUBLIC KEY) with a private key (PRIVATE KEY) and transmits it to the terminal control server;
The terminal control server displays emergency broadcast broadcast data through a PA broadcast device or an AV broadcast device through any one or more of sound, audio, or video;

The terminal control server inside the smart broadcasting device transmits and broadcasts TTS (Text To Speech) emergency broadcasting broadcast data to a wired speaker connected through a wired network network; And
The internal terminal control server of the smart broadcasting device is characterized by broadcasting TTS (Text To Speech) emergency broadcasting broadcasting data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency wireless repeater installed in the EPS room on each floor of the multi-use facility. Smart broadcasting device.
QUANTUM KEY authentication server, QUANTUM TLS, is a random number seed that includes the same pseudo-random number generator (PRNG) to generate the same pseudo-random number. Generate;

When the QUANTUM KEY authentication server connects to QUANTUM TLS,
QUANTUM TLS uses a random unpredictable quantum random number (QRN) generated by a quantum random number generator (QRNG) as a random number seed to generate a pair of asymmetric key cryptographic algorithms' PRIVATE KEY and PUBLIC KEY. And;
QUANTUM TLS transmits a public key (PUBLIC KEY) to the QUANTUM KEY authentication server;

When the center control server generates emergency broadcast broadcast data,
The QUANTUM KEY authentication server is a terminal control server through the network, and the QUANTUM KEY authentication server ID (IDentification) is encrypted with a symmetric key (SYMMETRIC KEY), and the terminal is encrypted with the public key (PUBLIC KEY) received from QUANTUM TLS. Transmits to QUANTUM TLS;
QUANTUM TLS receives the terminal QUANTUM KEY and logs in the network network between the center control server and the terminal control server when the ID (IDentification) decrypted with the PRIVATE KEY and SYMMETRIC KEY is confirmed as the user ID. (Log-In) connect;

The center control server encrypts the emergency broadcast broadcast data with a public key and transmits it through the network network as QUANTUM TLS;
QUANTUM TLS decrypts emergency broadcast broadcast data encrypted with a public key (PUBLIC KEY) with a private key (PRIVATE KEY) and transmits it to the terminal control server;
The terminal control server transmits emergency broadcast broadcast data to the alarm terminal;
The alarm terminal expresses emergency broadcast broadcast data through any one or more of sound, audio, or video through a PA broadcast device or an AV broadcast device;

The terminal control server inside the smart broadcasting device transmits and broadcasts TTS (Text To Speech) emergency broadcasting broadcast data to a wired speaker connected through a wired network network; And
The terminal control server inside the smart broadcasting device broadcasts TTS (Text To Speech) emergency broadcasting broadcasting data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency radio repeater installed in the EPS room on each floor of the multi-use facility;

The terminal control server periodically performs a line ping test through the AI direct firing short-circuit prediction controller and transmits a ping test result report to the manager's smartphone;

When the terminal control server receives a fire event from the fire reception team, in performing the emergency broadcast of the fire occurrence sequentially through the AI direct fire short-circuit prediction controller,
The AI direct firing short-circuit prediction controller includes an AI mode selection ON/OFF button, and when the AI mode selection button is in the ON state, when a short-circuit layer occurs during the sequential emergency broadcast of the direct fire, it automatically connects to the next emergency broadcast;
When the emergency broadcasting terminal receives and broadcasts emergency broadcasting broadcasting data while the AI mode selection button of the AI direct fire short-circuit prediction controller is OFF, the sound data received through the internal monitor microphone is transmitted to the internal information protection module of the smart broadcasting device. ;
The information protection module transmits the sound data to the terminal control server only when the emergency broadcasting broadcasting data is transmitted through the emergency broadcasting terminal;
The terminal control server broadcasts the received sound data to the monitor speaker only when the emergency broadcast broadcast data is transmitted through the emergency broadcast terminal;

The emergency broadcasting terminal installed inside/outside the building consists of a wired terminal block, wireless receiver, amplification unit, speaker unit, monitor microphone, AC supply unit, storage battery, drive unit, power control unit, and main control unit.
A wired terminal block to which a fire protection cable for transmitting emergency broadcasting broadcast data is connected;
A radio receiver configured to receive a radio frequency modulated with emergency broadcast broadcast data;
An amplifying unit for amplifying the radio frequency modulated by emergency broadcasting broadcasting data;
A speaker unit for converting a radio frequency modulated with emergency broadcasting data into sound;
The AC supply unit is an AC supply unit that receives AC power at all times and supplies driving power to the driving unit;
The storage battery receives power from the AC supply unit and charges it to supply power to the driving unit;
The driving unit is a driving unit that receives driving power from either an AC supply unit or a storage battery and supplies driving power to a wireless receiver, an amplification unit, a speaker unit, a power control unit, a monitor microphone, and a main control unit;
The main control unit composed of a microprocessor controls a wireless receiving unit, an amplifying unit, a speaker unit, an AC supply unit, a driving unit, a monitor microphone, and a power control unit; And
The driving unit supplies driving power to the monitor microphone, generates sound data through the monitor microphone, and transmits it to the information protection module inside the smart broadcasting device only when emergency broadcast broadcast data is received;

The terminal control server includes an emergency broadcasting sequential mode selection ON/OFF button, and when the sequential mode selection button is ON, the emergency broadcasting broadcasting data is sequentially broadcast to the inner floor of the building;
When the sequential mode selection button is in the OFF state, emergency broadcasting broadcast data is broadcast to all floors of the building at once;
The terminal control server includes an emergency broadcast manager mode selection ON/OFF button, and when the manager mode selection button is ON, when receiving emergency broadcast broadcast data, it transmits an emergency broadcast broadcast data reception alarm to the manager's smartphone. Smart broadcasting device.
QUANTUM KEY authentication server, QUANTUM TLS, is a random number seed that includes the same pseudo-random number generator (PRNG) to generate the same pseudo-random number. Generate;

When the QUANTUM KEY authentication server connects to QUANTUM TLS,
QUANTUM TLS uses a random unpredictable quantum random number (QRN) generated by a quantum random number generator (QRNG) as a random number seed to generate a pair of asymmetric key cryptographic algorithms' PRIVATE KEY and PUBLIC KEY. And;
QUANTUM TLS transmits a public key (PUBLIC KEY) to the QUANTUM KEY authentication server;

When the center control server generates emergency broadcast broadcast data,
The QUANTUM KEY authentication server is a terminal control server through the network, and the QUANTUM KEY authentication server ID (IDentification) is encrypted with a symmetric key (SYMMETRIC KEY), and the terminal is encrypted with the public key (PUBLIC KEY) received from QUANTUM TLS. Transmits to QUANTUM TLS;
QUANTUM TLS receives the terminal QUANTUM KEY and logs in the network network between the center control server and the terminal control server when the ID (IDentification) decrypted with the PRIVATE KEY and SYMMETRIC KEY is confirmed as the user ID. (Log-In) connect;

The center control server encrypts the emergency broadcast broadcast data with a public key and transmits it through the network network as QUANTUM TLS;
QUANTUM TLS decrypts emergency broadcast broadcast data encrypted with a public key (PUBLIC KEY) with a private key (PRIVATE KEY) and transmits it to the terminal control server;
The terminal control server displays emergency broadcast broadcast data through a PA broadcast device or an AV broadcast device through any one or more of sound, audio, or video;

The terminal control server inside the smart broadcasting device transmits and broadcasts TTS (Text To Speech) emergency broadcasting broadcast data to a wired speaker connected through a wired network network; And
The internal terminal control server of the smart broadcasting device is characterized by broadcasting TTS (Text To Speech) emergency broadcasting broadcasting data through an emergency broadcasting terminal connected to an unlicensed frequency wireless network network through an unlicensed frequency wireless repeater installed in the EPS room on each floor of the multi-use facility. Smart broadcasting device.
◈ Claim 17 was abandoned upon payment of the set registration fee. The terminal unit is composed of a broadcasting device 50 and a terminal SINGLE USB 54,
A broadcasting device 50 through which the terminal SINGLE USB 54 receives and broadcasts broadcasting data from either the Master QUANTUM SERVER 61, the Alice 6G QUANTUM SERVER 62, or the Alice QUANTUM SERVER 63;
The QUANTUM 5G AP (49) receives the video data from the UHD surveillance camera and transmits it to either the Master QUANTUM SERVER (61), the Alice 6G QUANTUM SERVER (62) or the Alice QUANTUM SERVER (63) through the 5G wireless network base station. 5G AP 49;
UHD surveillance camera is a UHD security CCTV surveillance camera and consists of an optical unit, a driving unit, a main control unit, an image security processing unit, an image analysis unit, a network security processing unit, and an input/output unit.
The optical unit is composed of a filter unit 10, a filter driving motor 11, a zoom lens 12, a zoom motor 13, a variable focus lens 14, a focus motor 15, and a focus lens 16;
The driving unit is composed of a motor driving drive 17, a driving unit memory 18, a driving unit control unit 19, an RS-485 20, a manual operation unit 21, and a remote control unit 22;
The main control unit is TRNG(23), System Memory(24), PUF-PIN Memory(25), Security CPU(26), MCU(Machine Control Unit)(27), PUF Chip(28), Security OTP Memory(30), It is composed of a Boot-ROM 31 and a Serial Peripheral Interface (SPI) Controller 32;
The image security processing unit is composed of an image sensor unit 33, 5G QUANTUM JUMP ENGINE 34, Quantum Entanglement 36, and Decoy Pulse 37;
The image analysis unit is composed of an image analysis module 38, an object recognition module 39, and a number recognition module 40;
The network security processing unit is composed of DEBUGGER (41), QUANTUM BLOCK CHAIN (42), and 1:N BLOCK CHAIN (43);

Quantum Communication Department Bob 6G QUANTUM SERVER(55), Bob QUANTUM SERVER(56), Bob PUF-QRNG TWIN USB(57), non-QUANTUM CHANNEL(58), QUANTUM CHANNEL(59), hybrid-QUANTUM CHANNEL(60), It consists of Master QUANTUM SERVER(61), Alice 6G QUANTUM SERVER(62), Alice QUANTUM SERVER(63), QUANTUM 6G SECURITY ENGINE(64), Alice PUF-QRNG TWIN USB(65), LPWAN communication modem(66).

The filter unit 10 is composed of at least one of an infrared filter, an ultraviolet filter, and an anti-reflective coating filter;
Selecting one of the infrared filter, ultraviolet filter, and non-reflective coating filter by driving the filter driving motor 11;
Variable zoom lens magnification by driving the zoom motor 13 driving the zoom lens 12;
The focus focus is varied through the variable focus lens 14 and the focus motor 15 driving the focus lens 16;
The drive unit control unit 19 programmed by the input data input from the RS-485 (20) or the manual operation unit (21) or the remote control unit (22) transfers the input data to the drive unit memory (18) and the motor drive drive (17). Control to drive the filter driving motor 11, zoom motor 13, and focus motor 15 to collect optical signals and transmit them to the image sensor unit 33;
The image sensor unit 33 internally transmits image data obtained by converting the optical signal into an electrical signal to the 5G QUANTUM JUMP ENGINE 34 and the image analysis module 38;
The image analysis module 38 receives image data, and among the object data extracted from the object through the object recognition module 39 and the object data, in the case of a vehicle, the vehicle number data obtained by textualizing the license plate through the number recognition module 40 is networked. Transmits to the security processing unit QUANTUM BLOCK CHAIN 42;
The QUANTUM BLOCK CHAIN 42 compares the vehicle number data of the wanted vehicle received from the 1:N block chain 43 connected to the block chain and generates a wanted vehicle event in the case of a wanted vehicle;
The network security processing unit DEBUGGER 41 verifies a boot error when the main control unit Boot-ROM 31 first boots;

The LPWAN communication modem 66 collects the audio/video data collected from the broadcasting device 50 and transmits the data to the terminal SINGLE USB 54;
The terminal SINGLE USB 54 transmits the audio/video data to the Bob 6G QUANTUM SERVER 55; And
Bob 6G QUANTUM SERVER(55) receives UHD surveillance camera control data or broadcasting device control data from any one of Alice 6G QUANTUM SERVER(62), Alice QUANTUM SERVER(63), Alice PUF-QRNG TWIN USB(65) Transfer to the secondary internal terminal SINGLE USB 54;
The terminal SINGLE USB 54 receives UHD surveillance camera control data from the Bob 6G QUANTUM SERVER 55;
The LPWAN communication modem 66 performs data communication with an LPWAN terminal;
The main controller MCU(27) is TRNG(23), System Memory(24), PUF-PIN Memory(25), Security CPU(26), MCU(27), PUF Chip(28), Security OTP Memory(30), Controls the Boot-ROM 31 and the SPI Controller 32;
The system memory 24 is a system memory in which the main control unit MCU 27 operating OS program is stored;
The MCU 27 controls the security CPU 26 to extract PIN (Personal Identification Number) data from the hardware pin of the PUF Chip 28 and store it in the PUF-PIN Memory 25 and Alice 6G QUANTUM SERVER 62. And;
The MCU 27 controls the TRNG 23 to generate and receive a natural random number and transmits it to the security CPU 26;
The Security CPU 26 generates a private key by formatting the PIN (Personal Identification Number) data stored in the PUF-PIN Memory 25 as a fixed-length format function as a random number seed, and then generates a private key through the TRNG 23. A private key and a beta-OR (EX-OR) encryption operation is performed with a natural random number seed to generate a public key and store it in the Security OTP Memory 30 and the Alice 6G QUANTUM SERVER 62;

Bob 6G QUANTUM SERVER(55) receives PIN (Personal Identification Number) data encrypted with public key from Alice 6G QUANTUM SERVER(62) through non-QUANTUM CHANNEL(58) and transmits it to MCU(27) through input/output. ;
When the MCU 27 decrypts with a private key and matches the PIN (Personal Identification Number) data stored in the PUF-PIN Memory 25, the MCU 27 boots the Boot-ROM 31 and controls the SPI Controller 32 to control the UHD surveillance camera. And Alice 6G QUANTUM SERVER (62) and the login (LOG In) network network connection to receive image data from the 5G QUANTUM JUMP ENGINE (34) and transmits it to the Alice 6G QUANTUM SERVER (62);

Alice QUANTUM SERVER(63) and Bob QUANTUM SERVER(56) are connected by QUANTUM CHANNEL(59),
The QUANTUM 6G SECURITY ENGINE 64 generates a QUANTUM KEY from either BB84 or COW (Coherent One Way) and transmits it to the Alice QUANTUM SERVER 63;
Alice QUANTUM SERVER (63) transmits the QUANTUM KEY to Bob QUANTUM SERVER (56) through QUANTUM CHANNEL (59);
The Bob QUANTUM SERVER 56 transmits to the Quantum Entanglement 36 through the input/output unit via the Bob 6G QUANTUM SERVER 55;
Quantum Entanglement 36 transmits the image to 6G SECURITY ENGINE 35 in case of QUANTUM KEY generated by the COW (Coherent One Way) generation method;
Image 6G SECURITY ENGINE (35) is verified with Decoy Pulse (37) and, in the case of quantum entanglement, receives image data from 5G QUANTUM JUMP ENGINE (34), encrypts the image data with QUANTUM KEY, and uses the input/output part to Bob 6G QUANTUM SERVER. To Bob QUANTUM SERVER 56 via 55;
Bob QUANTUM SERVER 56 transmits the image data encrypted with the QUANTUM KEY to Alice QUANTUM SERVER 63 through QUANTUM CHANNEL 59;
Alice QUANTUM SERVER (63) decrypts the image data encrypted with the QUANTUM KEY using the QUANTUM KEY received from the 6G SECURITY ENGINE (64);

Alice PUF-QRNG TWIN USB(65) and Bob PUF-QRNG TWIN USB(57) are hybrid-composed of non-quantum communication channel (Non-QUANTUM Communication Channel(58)) and quantum communication channel(QUANTUM Communication Channel(59)). Connected to the QUANTUM CHANNEL(60),
Alice PUF-QRNG TWIN USB(65) is Alice Boot-ROM, Alice Main Control Unit (MCU), Alice System M/M; System MEMORY, Alice VPN connected by Alice System Bus. (Virtual Private Network), Alice Debugger (QC-DEBUGGER), Alice I/O Port, Alice Serial Peripheral Interface Controller (SPI Controller), Alice True Random Number Generator (TRNG) ), Alice Security CPU (Security Central Processing Unit), Alice Security OTP M/M; Security One Time Password MEMORY, Alice PUF Memory (PUF M/M; Phisycally Unclonable Function MEMORY), Alice PUF It is composed of Chip (Phisycally Unclonable Function Chip),
Alice main controller (MCU) is Alice Boot-ROM, Alice System M/M, Alice VPN (Virtual Private Network), Alice Debugger (QC-DEBUGGER) connected by Alice System Bus , Alice input/output device (I/O Port), Alice serial peripheral device interface (SPI Controller) control;
Alice security CPU (Security CPU) is Alice debugger (QC-DEBUGGER), Alice I/O device (I/O Port), Alice serial peripheral device interface (SPI Controller), Alice pure random number generator (TRNG), Alice security OTP memory (Security OTP M/M), Alice PUF memory (PUF M/M), Alice PUF Chip;
Alice System M/M stores programs and data necessary for Alice's main control unit (MCU);
Alice serial peripheral device interface (SPI Controller) is connected to Alice I/O device (I/O Port) and controls Alice I/O device (I/O Port) according to the control command of Alice main control unit (MCU) to turn on the network network connection. /OFF control;
Alice Boot-ROM stores programs and data necessary for booting of Alice's main control unit (MCU);
Alice VPN performs 1:1 encrypted communication between Bob VPN inside Bob PUF-QRNG TWIN USB 57 connected to the network network;
Alice debugger (QC-DEBUGGER) receives QC (decoy Qantum Certificate) through Alice input/output device (I/O Port) and turns on/off the network network through Alice input/output device (I/O Port) according to the authentication status. OFF control;
The Alice input/output device (I/O Port) is a switch connected to the network network and transmits the data received through the network network ON/OFF control and the network network to the Alice main control unit (MCU) through the Alice system bus;
Alice Security CPU extracts Alice PIN data from Alice PUF Chip and stores it in Bob PUF memory (PUF M/M);
Alice Security CPU transmits Alice PIN data to Alice Main Control Unit (MCU);
The Alice Security CPU generates an Alice private key from the Alice PIN data and stores it in Alice Security OTP memory (Security OTP M/M);
The Alice Security CPU generates the Alice public key by encrypting the Alice private key with a random number generated by the Alice pure random number generator (TRNG) and transmits it to the Alice main control unit (MCU);

Bob PUF-QRNG TWIN USB(57) is a Bob boot ROM, Bob main control unit (MCU), Bob system memory (System M/M; System MEMORY), Bob VPN connected by Bob system bus. (Virtual Private Network), Bob Debugger (QC-DEBUGGER), Bob I/O Device (I/O Port), Bob Serial Peripheral Interface Controller (SPI Controller), Bob True Random Number Generator (TRNG) ), Bob Security CPU (Security Central Processing Unit), Bob Security OTP M/M; Security One Time Password MEMORY, Bob PUF Memory (PUF M/M; Phisycally Unclonable Function MEMORY), Bob PUF It is composed of Chip (Phisycally Unclonable Function Chip),
Bob main control unit (MCU) is Bob Boot-ROM, Bob System M/M, Bob VPN (Virtual Private Network), Bob Debugger (QC-DEBUGGER) connected by Bob System Bus , Bob input/output device (I/O Port), Bob serial peripheral device interface (SPI Controller) control;
Bob's security CPU (Security CPU) includes Bob Debugger (QC-DEBUGGER), Bob I/O Device (I/O Port), Bob Serial Peripheral Device Interface (SPI Controller), Bob Pure Random Number Generator (TRNG), and Bob Security OTP Memory (Security CPU). OTP M/M), Bob PUF memory (PUF M/M), Bob PUF Chip;
The Bob System M/M stores programs and data necessary for the Bob main control unit (MCU);
The Bob serial peripheral interface (SPI Controller) is connected to the Bob input/output device (I/O Port) and controls the Bob input/output device (I/O Port) according to the control command of the Bob main control unit (MCU) to turn on the network network connection. /OFF control;
Bob Boot-ROM stores programs and data necessary for booting of Bob's main control unit (MCU);
Bob VPN performs 1:1 encrypted communication between Alice VPN inside the Alice PUF-QRNG TWIN USB 65 connected to the network network;
Bob debugger (QC-DEBUGGER) receives a quantum certificate (QC) through the Bob input/output device (I/O Port) and turns on/off the network network through the Bob input/output device (I/O Port) according to the authentication status. Control;
The Bob input/output device (I/O Port) is a switch connected to the network network and transmits the data received through the network network ON/OFF control and the network network to the Bob main control unit (MCU) through the Bob system bus;
Bob Security CPU extracts Bob PIN data from Bob PUF Chip and stores it in Alice PUF memory (PUF M/M);
Bob Security CPU transmits Bob PIN data to Bob main control unit (MCU);
The Bob Security CPU generates a Bob private key from the Bob PIN data and stores it in the Bob Security OTP memory (Security OTP M/M);
The Bob Security CPU generates a Bob public key by encrypting the Bob private key with a random number generated from the Bob pure random number generator (TRNG), and then transmits the Bob public key to the Bob main control unit (MCU);

Alice PUF-QRNG TWIN USB(65) and Bob PUF-QRNG TWIN USB(57) are connected to the QUANTUM Communication Channel among hybrid-QUANTUM CHANNEL(60),
The quantum random number generator (QRNG) is composed of an Alice quantum random number generator (Alice QRNG) of the transmitter that generates a random quantum random number and a Bob quantum random number generator (Bob QRNG) of the receiver;
Quantum Key Distribution (QKD) is composed of an Alice quantum key distributor (QKD) of a transmitter including a laser and a Bob quantum key distributor (QKD) of a receiver including a single photon detector;
Quantum Platform is the Aliec Quantum Platform, which generates a quantum certificate (QC) from quantum random numbers generated by Alice's quantum random number generator (Alice QRNG) and transmits it through the Alice quantum key distributor (QKD). It consists of a Bob quantum platform that receives and stores a quantum certificate (QC) through a Bob quantum key distributor (QKD);
Transmitting unit (a transmitting set) The random quantum random number generated in the Alice quantum random number generator (Alice QRNG) is transmitted to the Aliec quantum platform (Quantum Platform);
Aliec quantum platform (Quantum Platform) receives the quantum random number, generates a quantum certificate (QC) and transmits it to the Alice master server (Alice MASTER SERVER) and the Alice quantum key distributor (QKD);
Alice quantum key distributor (QKD) transmits the quantum certificate (QC) to the Bob quantum key distributor (QKD) through the quantum communication channel (QUANTUM Communication Channel) connected by an optical cable;
The receiving unit (a receiving set) Bob quantum key distributor (QKD) receives the quantum certificate (QC) and is stored in the Bob quantum platform (Quantum Platform);

Alice PUF-QRNG TWIN USB (65) and Bob PUF-QRNG TWIN USB (57) are connected to an ISP (Internet Service Provider) operator network network that does not form a quantum communication channel,
Alice PUF-QRNG TWIN The main control unit (MCU) inside the USB(65) boots through the Alice Boot-ROM connected to the Alice system bus, and stores it in the Alice system storage device (System M/M). Depending on the stored program, Alice's serial peripheral interface (SPI Controller) is controlled to control the network network ON/OFF through the Alice input/output device (I/O Port), and the Alice public key received through the Alice security CPU (Security CPU) is controlled. Sends to Bob VPN inside Bob PUF-QRNG TWIN USB 57 through Alice VPN;
Bob PUF-QRNG TWIN The internal Bob main control unit (MCU) inside the USB 57 boots through the Bob Boot-ROM connected by the Bob system bus, and is stored in the Bob system storage device (System M/M). Depending on the stored program, the Bob serial peripheral interface (SPI Controller) is controlled to control the network network ON/OFF through the Bob input/output device (I/O Port), and the Bob public key received through the Bob security CPU is used. Transfer to Alice VPN inside Alice PUF-QRNG TWIN USB 65 through Bob VPN;

Alice PUF-QRNG TWIN USB(65) inside Alice's main control unit (MCU) uses the Bob public key received through Alice VPN to encrypt the Bob PIN data stored in Alice PUF memory (PUF M/M) and uses Alice KEY to use Alice VPN. Through the Bob PUF-QRNG TWIN USB 57 transmits to the internal Bob VPN;
Bob PUF-QRNG TWIN USB(57)'s internal Bob main control unit (MCU) uses the Alice public key received through Bob VPN to encrypt the Alice PIN data stored in the Bob PUF memory (PUF M/M). Through the Alice PUF-QRNG TWIN USB 65 transmits to the internal Alice VPN;

The Alice main control unit (MCU) inside the Alice PUF-QRNG TWIN USB 65 matches the Alice PIN data decrypted with the Alice private key and the Alice PIN data extracted from the Alice PUF Chip; and
Bob PUF-QRNG TWIN The Bob main control unit (MCU) inside the USB 57 matches the Bob PIN data decrypted with Bob's private key and the Bob PIN data extracted from the Bob PUF Chip;

A network login (LOG In) is connected between the Alice master server (Alice MASTER SERVER) connected to the Alice PUF-QRNG TWIN USB (65) and the Bob master server (Bob MASTER SERVER) connected to the Bob PUF-QRNG TWIN USB (57). ;

Alice PUF-QRNG TWIN The Alice main control unit (MCU) inside the USB(65) receives a quantum certificate (QC) from the Alice MASTER SERVER, encrypts it with Bob's public key, and then uses the Alice VPN to Bob PUF-QRNG TWIN. It transmits to the Bob VPN inside the USB 57;
The Bob main control unit (MCU) inside the Bob PUF-QRNG TWIN USB 57 decrypts the quantum certificate (QC) encrypted with the Bob public key received through the Bob VPN with the Bob private key to decrypt the quantum certificate (QC);

Bob Master Server (Bob MASTER SERVER) transmits the quantum certificate (QC) stored in the Bob quantum platform (Quantum Platform) to the Bob debugger (QC-DEBUGGER) inside the Bob PUF-QRNG TWIN USB 57;
Bob PUF-QRNG TWIN The Bob main control unit (MCU) inside the USB 57 transmits the quantum certificate (QC) received from the Alice MASTER SERVER to the Bob debugger (QC-DEBUGGER);
Bob debugger (QC-DEBUGGER) is a quantum certificate (QC) received from Alice PUF-QRNG TWIN USB (65) and the quantum certificate (QC) received from the Bob master server (Bob MASTER SERVER) do not match I/ A closed self-network system characterized by a broadcasting device terminal that blocks the network network connection between the Alice master server and the Bob master server by controlling the O Port as an OFF contact point.
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