KR20190120129A - The QUANTUM number smartphone transmitted from CCTV's recorded information - Google Patents

Abstract

The present invention relates to a quantum random number encryption smartphone receiving image data captured by a surveillance camera. A quantum server comprises a high speed quantum random number generator and a high speed pseudo random number generator, and the high speed pseudo random number generator generates a high speed symmetric encryption key through a pseudo random number program, and the high speed quantum random number generator generates a high speed asymmetric encryption key through a quantum random number to the high speed symmetric encryption key. A cloud quantum random number generator comprises a cloud quantum random number control unit and a cloud pseudo random number generator. The cloud pseudo random number generator generates a cloud symmetric encryption key through a pseudo random number program, and the cloud quantum random number control unit generates a cloud asymmetric encryption key through the quantum random number to the cloud symmetric encryption key. A terminal quantum random number generator comprises a terminal quantum random number control unit and a terminal pseudo random number generator. The terminal pseudo random number generator generates a terminal symmetric encryption key through the pseudo random number program, and the terminal quantum random number control unit generates a terminal asymmetric encryption key through the quantum random number to the terminal symmetric encryption key. The present invention builds a safe urban environment by establishing a location managing system through physical user authentication having a high safety and a quantum random number.

Description

Quantum random password smartphone receiving image data from surveillance cameras {The QUANTUM number smartphone transmitted from CCTV's recorded information}

It is related to security-enhanced cloud system through ultra-portable quantum random number generator.

The cloud server including the fast quantum random number generator and the local server connected to the network are configured to include the low speed quantum random number generator.

In particular, a low power wide area network (LPWAN) terminal connected to a local server is a terminal connected to a low power wide area network (LPWAN) network such as NB-IoT or LoRA, and is a portable USB or embedded PCB or a high density. It includes a quantum random number generator and a pseudo random number generator integrated on a printed circuit board (HDI PCB).

Although quantum random number generator technology can be incorporated into LPWAN (Low Power Wide Area Network) terminals, it is far from the patent registration requirement, but it is a new technology that can be realized only in a miniaturized and inexpensive production system.

Although miniaturization and low-cost production differ from the patented components, the use of patterns generated through diffraction gratings as part of random random numbers is an important part of the actual technology development implementation.

Sigfox uses a technology called UNB (Ultra Narrow Band) to connect a chipset-based communication modem to various objects without using a separate base station or relay equipment so that only necessary data can be exchanged with each other in a short distance, and a separate network construction cost Minimize power consumption. It is said that urban areas can transmit 3km-10km, and suburban areas can transmit 30-50km and 1,000km if the visibility is secured. In order to use the service without paying the frequency allocation, the government can freely use the 'unlicensed frequency band' left by the government. Mobile networks such as cellular and Wi-Fi are optimized for general users to make phone calls or consume multimedia contents. However, in order for the Internet of Things to become a reality, a dedicated network for things driven by low-performance computers with small batteries is needed. Sigfox aims to service many devices at low power and inexpensively. Sigfox uses an unlicensed frequency band and can service up to 140 messages of up to 12 bytes per day. They also offer plans for between $ 1 and $ 12 per device per year.

Long-term battery maintenance and extended wireless coverage have become central issues among the network sensor requirements for the Internet of Things (IoT) implementation. IoT operators are faced with the challenge of building a simple yet robust infrastructure with limited resources, requiring a solution that is easy to design, quick to launch, superior interoperability, and nationwide deployment with minimal total cost.

LoRA LPWAN competes with Sigfox's UNB in the Low Power Wide Area Network (LPWAN) range of 10 miles (16.093 km) and more than 10 years of battery life in the suburbs with the Internet of Things (IoT) and M2M (Machine-to-Machine) Enables wireless communication and connects millions of wireless sensor nodes to gateways. It can be easily connected to the Laura Alliance infrastructure along with the existing infrastructure, including private LANs and public networks operated by telecommunications operators, and can form a low power wide area network (LPWAN) on a national scale. LoRA technology is described as a way to enable embedded applications to be more scalable and cost-effective than 3G and 4G cellular networks, and to solve the long-standing dilemma of having to choose only one between a wider coverage range and lower power consumption. . LoRA technology is said to maximize both, reducing additional repeater costs, operating reliably in harsh outdoor environments, and is well suited for a wide range of low speed wireless monitoring and control designs.

With a detailed term definition,

M2M, also known as Machine To Machine (M2M), is a way of bringing a transportation card when you ride a bus or subway. This is because traffic cards and quantum terminals communicate with each other to exchange information and make payments.

The IoT, called the Internet of Things (IoT), is a physical network that allows objects with sensors and communication chips to automatically send and receive real-time data without human intervention. In the IoT environment, devices (objects) with built-in sensors or communication functions can be connected to the Internet to collect surrounding information, exchange information with other devices, and make appropriate decisions. Even if a person doesn't manipulate or instruct them, the machine takes care of things. It's a huge ecosystem of things with wired and wireless networking based on attached sensors and chips. The Internet of Things is based on Bluetooth, near field communication (NFC), sensor data, and networks.

Wi-Fi originated from the name of the organization, the Wireless Fidelity Alliance, which is officially known as Wireless Local Area Network (WLAN).

The MAC address (media access control address) in the local area network, the MAC address is used by the MAC layer of the data link layer refers to the 48-bit hardware address of the network card, the same as the Ethernet address, or token ring address.

The hardware address assigned by the network card manufacturer is a universally administered address (UAA), and all network cards have unique values. However, UAA can be changed for administrative purposes. This MAC address is called a locally administered address (LAA).

An IP address is a 32-bit address given in the concept of matching a physical network address for efficient routing on the Internet. Using IP addresses not only identifies the only host on the network, but also identifies the network on which the host resides. IP addresses are divided into classes, and all hosts in a network share the same prefix.

The present invention relates to a low power wide area network (LPWAN) having a wider communication radius than a short range.

5G mobile communication is a mobile communication technology capable of giga-class wireless Internet that is at least 13 times (1Gbps) and up to 1,300 times (100Gbps) faster than LTE (75Mbps), which is 4G mobile communication. In mobile phones, G stands for "Generation," meaning generation. Therefore, 5G mobile communication means fifth generation mobile communication. Here, generations are classified based on the time when technology is dramatically changed. Generally, generations are classified according to the development of technology that can transfer a lot of data at high speed.

Long Term Evolution (LTE) is a wireless technology designed to increase the capacity and speed of cellular networks.It includes LTE-A, broadband LTE, LTE-R (Railway), narrowband LTE, LTE-B (Beyond), and LTE-H. (Heterogeneous) and LTE-U (Unlicensed).

In particular, narrowband LTE uses narrow bands such as narrowband and LTE-machine (LTE-MTC) and narrower narrowband and LTE-machine (NB-LTE-M), which is slower but consumes less power. LTE is commercialized, and NB-IoT pilot service of ultra narrow band ultra low power ultra small amount of data is in progress.

LTE-M, along with the narrowband IoT, is a family of mobile communications standards that enables communication in licensed frequency bands. LTE-M has completed global standards work through the international standardization organization 3GPP international standards.

The Internet of Thing, a system for connecting information in everyday life through wired and wireless networks and sharing information, is becoming popular. The Internet of Things is an IoT space network that forms intelligent relationships such as sensing, networking, and information processing in cooperation with human beings, things, and services.

As the Internet of Things becomes more common, security threats are increasing, and security for the Internet of Things requires uninterrupted security for all sections from IoT devices to systems. In particular, because they need to communicate with devices with various functions and protocols, they are exposed to security threats because they must use open standard technology.

On the other hand, the software-based random number generation technology has a problem that can identify the random number generation pattern by using not only a lot of resources but also advanced hacking techniques.

Therefore, for the security between IoT devices, a natural random number or a truly random number is required to extract random numbers from natural phenomena, which has no specific pattern and has an unpredictable advantage, but it is large and very expensive and requires an extraction device. There is a problem that is difficult to apply to the device.

IP Security Protocol (IPSec) is a protocol developed for security at the packet processing layer of network communication. It is used to protect data transmitted and received through a virtual private network (VPN) from public network users. Is a protocol.

The terminal-based IPSec VPN service is a virtual private network service that allows various communication terminals to connect to a VPN terminal connected to a public network and to send and receive VPN traffic by accessing a remote private network without a separate VPN setting. In order to use the virtual private network service as described above, the VPN terminal performs an authentication step for creating an IPSec tunnel with a virtual private network gateway (VPN GateWay: VPN G / W) through a public network, and in IPSec, a key exchange for the authentication is performed. As a procedure, the IKE method is divided into 1 step (Main Mode or Aggressive Mode) and 2 steps (Quick Mode). The first stage of IKE is an Internet Security Association and Key Management Protocol (ISAKMP) stage for exchanging encrypted data in an unsecured public network. The VPN terminal and the virtual private network gateway (VPN G / W) share each other in advance. Negotiating with each other about Pre-Shared Key and encryption method and hash function of ISAKMP. The second step is to negotiate an encryption method of data transmitted and received through an IPSec tunnel and a type of traffic to be transmitted and received through the IPSec tunnel.

The terminal-based IPsec VPN service can be divided into a wired base and a wireless base. In the wired base, the above-described VPN terminal accesses a virtual private network gate (VPN G / W) through a wired network, and in the wireless base, the above-mentioned VPN terminal connects to a virtual private network gateway (VPN G / W) through a wireless network. will be. In the wire-based VPN service, a fixed IP address is assigned to the VPN terminal for IKE 1-step authentication between the VPN terminal and the virtual private network gateway (VPN G / W), and the VPN terminal and the virtual private network gateway (VPN G / W). After storing the preset Pre-Shared Key in the Virtual Private Network Gateway (VPN G / W), it is determined whether the IP address of the VPN terminal having the corresponding Preshared Key is the statically assigned IP address. Authentication is performed by checking. In this case, an actual user terminal located below the subscriber's VPN terminal may access a remote private network through the VPN terminal without a separate authentication procedure.

 As the use of wired and wireless communication, including the Internet, is rapidly expanding, the security problems of communication networks are becoming increasingly important in terms of protecting confidentiality of national, corporate, financial, and personal privacy. The asymmetric public key cryptosystem, developed in the 1970s and now widely used in communication systems such as the Internet, is a method of encrypting information using a mathematical problem that is very difficult to solve as a public key and decrypting it using the year as a secret key. It is based on mathematical "computation complexity".

Representatively, RSA public key cryptosystem developed by three people, Rivest, Shamir, and Adleman takes advantage of the difficulty of factoring very large numbers. In other words, mathematically, the prime factorization problem increases exponentially as the size of the problem increases. Therefore, when the sender and receiver use a sufficiently large number of prime factorization problems as the public key, it is practical for the eavesdropper to decrypt the ciphertext. Take advantage of what would be impossible. However, the cryptographic system based on this mathematical computational complexity has been questioned about the security of the algorithm due to the development of more sophisticated algorithms.In 1994, AT & T's Peter Shor developed the quantum computer-based prime factorization algorithm to develop the quantum computer. RSA cryptosystems are found to be fundamentally decipherable.

Quantum cryptography, which has emerged as an alternative to solve this security problem, is based on the principle of quantum mechanics, which is the fundamental law of nature, rather than mathematical computational complexity. . In other words, quantum cryptography is a technology that distributes cryptographic keys (disposable random numbers) in real time and securely between senders and receivers based on the laws of quantum physics such as "non-quantity duplication". Also known as). "

The first quantum cryptographic protocol was introduced in 1984 by C.H. Presented by Bennett and G. Brassard of the University of Montreal.

Named after the inventors, the BB84 protocol uses four quantum states (for example, the polarization state of a single photon) that make up two bases.

An example of such a quantum cryptography communication technology is described in the electronic communication trend analysis Vol. 20, No. 5, October 2005, "quantum cryptography communication technology".

The prior art relates to a quantum cryptography communication technique using a quantum system of Hilbert space having a dimension of 2, that is, qubit (Qubit, quantum bit).

However, according to the above prior art, in order to transmit and receive a quantum code, a communication device between a communication quantum terminal and a server is required, and there is a limit in that the cost burden for the communication device between the communication quantum terminal and the server increases.

The present invention has a distinctiveness which is not a problem to solve the technique of distributing quantum keys.

Quantum keys, which are not securely distributed in the online state, are already installed in hardware and are not limited to a technology for distributing quantum keys in an online network.

In particular, the portable terminal (smartphone) is also different from the prior art for the purpose of secure distribution of the quantum key in the state that has already distributed the quantum key to a user (police and work smart phone) authenticated in the form of a dongle.

After generating one-time quantum random number OTP (One Time Password), the key method that transmits data in only one direction is the world's first technology.

It has a feature that data can be transmitted only in one direction, not in a two-way communication or log-in by sharing a key.

Generation of key also generates one-way transmission authentication key through quantum random number generator through multi-channel authentication of 3CH or more in real time of Global Positioning System (GPS) standard time.

The network should be designed to be separated from the Internet when establishing a computer network for communication of work data in relation to security (reflecting basic design according to Article 40 (Work Network Security Management) of the National Information Security Guidelines)

Evaluation of information security management status among government joint evaluation indicators (Organized by NIS) "Do you perform security measures when accessing agency business network (2.2.8)?", "On the Internet access of service providers (development, maintenance, etc.)" Do you take any security measures? (2.2.9) "

E-government civil service security level evaluation (Organization: Safety Administration) The main task of the network security measures that satisfies whether the outsourcing business network and the Internet network are separated (15.6) is the main task.

A fast random quantum random number generated by the quantum random number generator generates a fast symmetric encryption key by generating a fast quantum random number, and the pseudo random number generator combines and encrypts the pseudo random number generated by the program with the fast symmetric encryption key to generate an asymmetric encryption key. Create

The encrypted data is encrypted with an asymmetric encryption key to transmit data on the network. The data is encrypted with an asymmetric encryption key, but the asymmetric encryption key encrypted with a pseudo random number generated by a pseudo random number generator program is decrypted with a fast symmetric encryption key. Can be restored.

A symmetric cryptographic key made of quantum random numbers and an asymmetric cryptographic key created through a symmetric cryptographic key with a program (pseudo random number) can be decrypted asymmetric cryptographic keys with a pair of symmetric cryptographic keys.

The present invention combines a quantum random number generator with a pseudo random number generator for the purpose of quantum data communication (Tunneling data communication, Log-in data communication).

The quantum terminal is divided into an internal network quantum terminal that is used only in the internal network, an external network quantum terminal that provides services to the internal network from the external network, and a hybrid quantum terminal that is built as a backup network at the same time as the internal network and the external network. It is a cloud control system that establishes a self-communication wireless network with enhanced security by separating / combining networks and external networks and applying quantum random number generator technology.

Create a safe urban environment through hacking by a duplicate phone, loss of smartphone, secure physical user authentication, and location management system through quantum random number.

Unlike the one used for the certification period of more than one year from the conventional accredited certification authority, the key method that combines the quantum random number and pseudo random number key with one-time quantum random number OTP (One Time Password) transmits data in only one direction. It is the world's first technology.

Cloud server, VPN, and handheld terminal (smartphone) have Modem Chip MAC address registered in repeater to generate private encryption key by quantum random number generator (QNGN), NFC-OTP (One Time Password) and Strengthen security through public encryption key by combined Pseudo Random Number Generator (PRNG).

In particular, security is enhanced through Pseudo Random Number Generator (PRNG) combined with Quantum Random Number Generator (QRNG) and NFC-OTP (One Time Password).

The method of transmitting data through the HDMI output terminal of the monitor screen is a method that cannot hack and forge data. The monitor screen image can be hacked by the worst hacking, but data hacking and firewall intrusion are inherently impossible. Use it to send CCTV footage to your smartphone.

1: Corn's spiral pattern diagram generated through a diffraction grating
2 to 3: Understanding the pseudo random number generator and quantum random number generator in the form of USB
4 to 7: Block diagram for understanding the present invention
8 to 9: simplified diagram for understanding of the present invention

The quantum random number generator includes a random number generator and a pseudo random number generator.

The random source generator generates cryptographic keys from random random sources generated using unpredictable natural phenomena.

The unpredictable natural phenomenon generates a quantum random number (QRN) using natural light, a light emitting diode (LED), a laser diode (LD), and radiation.

 A symmetric encryption key for mutual encryption communication is generated using the encryption key as a pair of encryption keys.

Unlike the quantum random number described above, an asymmetric encryption key is generated through a pseudorandom number generator (PRNG).

The quantum random number generator of the present invention generates a quantum random number (QRN) symmetric encryption key and a pseudorandom number (PRN) asymmetric encryption key, and bidirectional communication is possible through a pair of symmetric encryption keys.

By generating the asymmetric encryption key again encrypted through the pseudo random number generator in the quantum random symmetric encryption key, it is characterized in that the asymmetric encryption key can be decrypted through the symmetric encryption key.

Low power wide area network (LPWAN) quantum terminal is composed of a Modem Chip, MCU, Power Amp and the low-speed terminal quantum random number generator.

The low-terminal quantum random number generator includes a low-speed random number source generator and a low-speed pseudo random number generator, and generates a terminal symmetric encryption key with a random random number source generated by the low-speed terminal random number source generator and generates a low speed to the terminal symmetric encryption key. It is a low-terminal quantum random number generator that encrypts and generates the terminal asymmetric encryption key through the terminal pseudo random number generator.

The MCU (Micro Control Unit) amplifies the terminal asymmetric encryption key and MAC Address (Media Access Control Address) data generated through the low-terminal quantum random number generator in the power amplifier and the IP (Internet Protocol) address of the LPWAN repeater through the modem chip. LPWAN repeater transmits to the integrated control server through the LPWAN control server.

The integrated control server transmits the terminal asymmetric encryption key and MAC address data corresponding to the MAC address to the LPWAN cloud server.

The high-speed quantum random number generator in the security platform of the municipality is composed of high-speed random number source generator and high-speed random number generator.

LPWAN is generated by generating a fast symmetric encryption key using a random random number source generated by the fast random number source generator and encrypting and generating a fast asymmetric encryption key through a fast random number generator on the fast symmetric encryption key. Send to the cloud server.

The LPWAN cloud server encrypts the fast asymmetric encryption key with the terminal asymmetric encryption key as the MAC address of the quantum terminal modem chip.

The quantum terminal decrypts the fast asymmetric encryption key encrypted with the terminal asymmetric encryption key through the terminal symmetric encryption key.

When the quantum terminal transmits the terminal symmetric encryption key encrypted with the fast asymmetric encryption key to the LPWAN cloud server, the LPWAN cloud server decrypts the terminal symmetric encryption key with the fast symmetric encryption key.

When the LPWAN cloud server transmits the fast symmetric encryption key encrypted with the terminal asymmetric encryption key to the quantum terminal, the quantum terminal decrypts the fast symmetric encryption key with the fast asymmetric encryption key.

When transmitting data in one direction of LPWAN cloud server from quantum terminal, it encrypts and transmits with fast symmetric encryption key, and transmits data in one direction of quantum terminal in LPWAN cloud server by encrypting with terminal symmetric encryption key. .

When the fast tunneling data communication is lost, the terminal symmetric encryption key, the fast symmetric encryption key, the terminal asymmetric encryption key, and the fast asymmetric encryption key generated by the quantum random number generator are extinguished, but the high speed tunneling data communication is interrupted and generated by the quantum random number generator. In the high-speed tunneling data communication before the terminated terminal symmetric encryption key, the fast symmetric encryption key, the terminal asymmetric encryption key, the fast asymmetric encryption key,

The low speed local quantum random number generator in the cloud local server is configured to include a low speed local random number source generator and a low speed local pseudo random number generator to generate a local symmetric encryption key with a random random source generated through the low speed local random source generator and generate the local symmetry. Generate a local asymmetric cryptographic key through a slow local pseudorandom number generator on the cryptographic key.

The cloud local server sends the local asymmetric encryption key to the LPWAN cloud server and the LPWAN cloud server sends the fast asymmetric encryption key encrypted with the local asymmetric encryption key to the cloud local server.

The cloud local server decrypts the fast asymmetric encryption key with the local asymmetric encryption key encrypted with the local asymmetric encryption key.

The cloud local server transmits the local symmetric encryption key encrypted with the fast asymmetric encryption key to the LPWAN cloud server, and the LPWAN cloud server transmits the fast symmetric encryption key and the terminal symmetric encryption key encrypted with the local asymmetric encryption key to the cloud local server.

The cloud local server decrypts the fast symmetric encryption key and the terminal symmetric encryption key encrypted with the local asymmetric encryption key.

The LPWAN cloud server transmits the local symmetric encryption key encrypted with the fast asymmetric encryption key to the quantum terminal, and the quantum terminal decrypts the local symmetric encryption key encrypted with the fast asymmetric encryption key.

The LPWAN cloud server, cloud local server, and quantum terminal share high-speed symmetric encryption key, local symmetric encryption key, and terminal symmetric encryption key for 3 channel high speed tunneling data communication.

At the end of the three-channel fast tunneling communication, the fast symmetric encryption key, the local symmetric encryption key, the terminal symmetric encryption key, the fast asymmetric encryption key, the local asymmetric encryption key, and the terminal asymmetric encryption key are all destroyed.

Video data can be hacked by the hacker to the video data of the screen copied through the monitor screen capture of the monitor screen of the cloud local server, but the HDMI output terminal (monitor video is not outputted) The video output terminal and the communication modem transmit the video data output through the HDMI output terminal to the ISP operator control server.

In order to hack the server and infect the virus, data must be input and output. However, because the user monitor image itself is transmitted through the HDMI video output terminal instead of bidirectional communication, data transmission can be hacked. Hacking of servers, virus infections will be physically impossible.

The same hybrid pseudorandom number generator with NFC pseudorandom number OTP data and the NFC pseudorandom number OTP with stored NFC pseudorandom number OTP data are a pair of pseudorandom number generators generating the same random number (a pair of pseudorandom number generators generating the same pseudorandom number). Can be replaced)

However, the same hybrid pseudorandom number generator with NFC pseudorandom number OTP data outputs a one-time OTP random number under the control of the quantum random number generator, and the NFC pseudorandom number OTP stored with the NFC pseudorandom number OTP data is tagged on the NFC chip of the smartphone 1 Output gray OTP random number to smartphone.

The hybrid quantum random number generator in the ISP operator's control server includes a hybrid random number generator and a hybrid random number generator identical to the NFC (Near Field Communication) pseudo random number OTP (One Time Password) data. A hybrid quantum random number generator generates a hybrid symmetric cryptographic key with a random random number source and generates a hybrid asymmetric cryptographic key with the same pseudo pseudorandom OTP data as the NFC pseudorandom OTP data.

The ISP operator control server generates the hybrid symmetric encryption key through the hybrid quantum random number generator, and then generates the hybrid asymmetric encryption key through the same hybrid pseudo random number generator with the NFC pseudo random number OTP data in the hybrid symmetric encryption key and transmits it to the smartphone.

When the NFC pseudo-random number OTP data stored in the same NFC pseudo-random number OTP data is tagged to the smartphone NFC chip, the NFC pseudo-random OTP data is transmitted to the smartphone to encrypt the NFC pseudorandom OTP data with the hybrid asymmetric encryption key. Transfer to ISP operator control server.

The ISP operator control server decrypts the data encrypted with the hybrid asymmetric encryption key received from the smartphone by using the hybrid symmetric encryption key to match the NFC pseudo random number OTP data of the hybrid pseudo random number generator. It is a quantum random password smartphone that receives the image data taken from the surveillance camera, characterized in that the transmission to the phone.

In one embodiment,

When transmitting data in one direction of LPWAN cloud server from quantum terminal, it is encrypted with high speed symmetric encryption key (high speed asymmetry encryption key) and when sending data in one direction of quantum terminal in LPWAN cloud server, it is terminal symmetric encryption key (terminal asymmetric encryption key). Encrypt and send.

In addition, when data is transmitted from the quantum terminal to the cloud server in one direction, the data is encrypted using a fast symmetric encryption key (high speed asymmetry encryption key) and transmitted from the cloud server to the quantum terminal in one direction. Encrypt and send.

In addition, if the data is transmitted from the cloud local server to the cloud server unidirectionally, the data is encrypted with a fast symmetric encryption key (fast asymmetric encryption key) and the local symmetric encryption key (local asymmetric encryption key if the data is transmitted from the cloud server to the cloud local server unidirectional). Encrypt and send

In one embodiment,

The high-speed quantum random number generator in the security platform of the local government consists of a high-speed random number source generator and a high-speed random number generator, and generates a high-speed symmetric cryptographic key with a random random number generated by the high-speed random number source generator. And a first fast asymmetric cryptographic key obtained by encrypting and generating a fast asymmetric cryptographic key through a high speed symmetric cryptographic key generator to the LPWAN cloud server.

LPWAN cloud server transmits fast asymmetric encryption key to modem chip of quantum terminal MAC address.

The quantum terminal consists of a Modem Chip, MCU, Power Amp, and Sensor.The MCU receives the first fast asymmetric encryption key through the Modem chip and encrypts the sensor data collected from the Sensor with the first fast asymmetric encryption key. Amplify at Power Amp and transmit to Modem Chip to LPWAN Cloud Server.

The LPWAN cloud server stores the sensor decrypted data obtained by decrypting the sensor encrypted data encrypted with the first fast asymmetric encryption key with the first fast symmetric encryption key.

When the cloud local server connects to the LPWAN cloud server with the user ID (IDentification), it generates the second fast symmetric encryption key and the second fast asymmetric encryption key through the fast quantum random number generator to access the IP address through the VPN (Virtual Private Network). Sends the second fast asymmetric encryption key to the cloud local server.

The cloud local server transmits the encrypted ID encrypted with the user ID with the second fast asymmetric encryption key to the LPWAN cloud server through the VPN, and the LPWAN cloud server decrypts the second fast symmetric encryption key with LPWAN if the user ID is a legitimate user. The sensor decrypted data is decoded with the first fast symmetric encryption key through the bidirectional tunneling data communication between the cloud server and the cloud local server.

Video data can be hacked by a hacker on the monitor screen of the cloud local server where the sensor decrypted data is displayed through the monitor screen capture, but is output through the HDMI output terminal that data hacking of the cloud local server is impossible. And the communication modem transmits the video data output through the HDMI output terminal to the ISP operator control server.

The hybrid quantum random number generator in the ISP operator control server is composed of a hybrid random number source generator and a hybrid pseudo random number generator identical to the NFC pseudo random number OTP data to generate a hybrid symmetric cryptographic key with a random random source generated by the hybrid random number source generator. And a hybrid quantum random number generator generating a hybrid asymmetric cryptographic key through the same hybrid pseudorandom number generator as the NFC pseudorandom number OTP data.

The ISP operator control server generates a hybrid symmetric encryption key through the hybrid quantum random number generator and generates a hybrid asymmetric encryption key through the same hybrid pseudo random number generator with the NFC pseudo random number OTP data in the hybrid symmetric encryption key and transmits it to the smartphone.

When the NFC pseudo-random number OTP stored in the same NFC pseudo-random number OTP data is tagged on the smartphone NFC chip, the NFC pseudo-random OTP data is transmitted to the smartphone to encrypt the data encrypted by the hybrid asymmetric encryption key to the ISP operator control server. To send.

The ISP operator control server decrypts the data encrypted with the hybrid asymmetric encryption key received from the smartphone by using the hybrid symmetric encryption key to match the NFC pseudo random number OTP data of the hybrid pseudo random number generator. It is a quantum random password smartphone that receives the image data taken from the surveillance camera, characterized in that the transmission to the phone.

The high-speed quantum random number generator in the security platform of the self-governing body is composed of a high-speed random number source generator and a high-speed random number generator, and generates a high-speed symmetric cryptographic key with a random random number source generated by the high-speed random number source generator. The high speed asymmetric encryption key is generated and encrypted to transmit the high speed asymmetric encryption key and the high speed asymmetric encryption key to the LPWAN cloud server.

LPWAN cloud server transmits fast asymmetric encryption key to modem chip of quantum terminal MAC address.

The quantum terminal consists of a Modem Chip, MCU, Power Amp, and Sensor.The MCU receives the fast asymmetric encryption key through the Modem Chip and amplifies the sensor encrypted data encrypted by the fast asymmetric encryption key from the sensor. Send the LPWAN cloud server to LPWAN cloud server through Modem Chip.

The LPWAN cloud server stores the sensor decrypted data obtained by decrypting the sensor encrypted data encrypted with the fast asymmetric encryption key.

When the cloud local server connects to the LPWAN cloud server, it generates the fast symmetric encryption key and the fast asymmetric encryption key through the fast quantum random number generator and sends the fast asymmetric encryption key to the cloud local server of the access IP address through the VPN (Virtual Private Network). send.

When the cloud local server sends the encrypted ID encrypted with the user ID with the high speed asymmetric encryption key to the LPWAN cloud server through the VPN, the cloud local server decrypts the high speed asymmetric encryption key with the LPWAN cloud server and cloud local if the user ID is registered. Transmit sensor decrypted data with high speed symmetric encryption key through bidirectional tunneling data communication between servers.

The local quantum random number generator includes a local random number generator and a local pseudorandom number generator identical to the NFC pseudorandom number OTP data to generate a local symmetric encryption key with a random random source generated by the local random number source generator and generate the local symmetric encryption key. Is a local quantum random number generator that generates a local asymmetric cryptographic key through the same local pseudorandom number generator as the NFC pseudorandom OTP data.

The cloud local server transmits the local asymmetric encryption key generated through the local quantum random number generator to the smartphone.

Tagging NFC pseudorandom number OTP on the smartphone NFC chip transmits the NFC pseudorandom number OTP data to the smartphone to transmit the NFC pseudorandom number OTP data encrypted with a local asymmetric encryption key to the cloud local server.

The cloud local server decrypts the NFC pseudorandom OTP data encrypted with the local asymmetric encryption key with the local symmetric encryption key, and if the NFC pseudorandom OTP data of the local pseudorandom number generator matches the NFC pseudorandom OTP data tagged on the smartphone, cloud local It is a quantum random password smartphone receiving the image data captured by the surveillance camera, characterized in that for transmitting the sensor decoding data of the server to the smartphone.

In one embodiment,

The cloud quantum random number generator in the cloud server is composed of a cloud random number source generator, a cloud quantum detection diode, a cloud quantum random pulse generator, a cloud quantum random number controller, and a cloud pseudorandom number generator.

A cloud random number source generator emitting quantum particles, a cloud quantum detection diode detecting quantum particles generated from the cloud random number source generator, and a random pulse corresponding to detection of quantum particles by detecting a quantum particle event from the cloud quantum detection diode Cloud quantum random pulse generator and cloud quantum random number control unit for generating a cloud quantum random number control unit for generating a symmetric encryption key by generating a quantum random number with a random random source generated through the cloud quantum random pulse generator to be.

The cloud quantum random number control unit transmits the cloud symmetric encryption key to the cloud pseudorandom number generator composed of a microprocessor.

The cloud pseudorandom number generator encrypts and generates a cloud asymmetric encryption key through a cloud symmetric encryption key. Cloud symmetric encryption key and second cloud asymmetric encryption key, third cloud symmetric encryption key and third cloud asymmetric encryption ...

The terminal quantum random number generator in the CCTV surveillance camera is composed of a terminal random number source generator, a terminal quantum detection diode, a terminal quantum random pulse generator, a terminal quantum random number controller, and a terminal pseudo random number generator.

A random random pulse corresponding to detection of a quantum particle by detecting a quantum particle from a terminal quantum source diode emitting a quantum particle and a terminal quantum detection diode detecting a quantum particle generated from the terminal random number source generator and a quantum particle event from the terminal quantum detection diode A terminal quantum random pulse generator for generating a

The terminal quantum random number controller is a terminal quantum random number controller configured to generate a terminal symmetric encryption key by generating a quantum random number with a random random source generated through the terminal quantum random pulse generator.

The terminal quantum random number control unit transmits the terminal symmetric encryption key to the terminal pseudo random number generator composed of a microprocessor.

The terminal pseudo random number generator encrypts the terminal asymmetric encryption key through the terminal symmetric encryption key, and sequentially generates the terminal symmetric encryption key and the terminal asymmetric encryption key (the first terminal symmetric encryption key, the first terminal asymmetric encryption key, and the second terminal). A terminal quantum random number generator for generating a terminal symmetric encryption key, a second terminal asymmetric encryption key, a third terminal symmetric encryption key, and a third terminal asymmetric encryption key.

In one embodiment,

Cloud quantum random number generator in the cloud server is composed of a cloud random number source generator, cloud quantum detection diode, cloud quantum random pulse generator, cloud quantum random number controller, cloud pseudo random number generator,

Cloud random number source generator for emitting quantum particles; And

Cloud quantum detection diode for detecting the quantum particles generated from the cloud random number source generator; And

A cloud quantum random pulse generator for detecting a quantum particle event from the cloud quantum detection diode and generating a random pulse corresponding to the detection of the quantum particle; and

The cloud quantum random number control unit is a cloud quantum random number control unit configured to generate a cloud symmetric encryption key by generating a quantum random number with a random random number source generated through the cloud quantum random pulse generator;

The cloud quantum random number control unit transmits a cloud symmetric encryption key to a cloud pseudorandom number generator configured with a microprocessor;

The cloud pseudorandom number generator encrypts and generates a cloud asymmetric encryption key through a cloud symmetric encryption key. Cloud symmetric encryption key and second cloud asymmetric encryption key, third cloud symmetric encryption key and third cloud asymmetric encryption ...

The terminal quantum random number generator inside the CCTV surveillance camera is composed of a terminal random number source generator, a terminal quantum detection diode, a terminal quantum random pulse generator, a terminal quantum random controller, and a terminal pseudo random number generator.

Terminal random number source generator for emitting quantum particles; And

A terminal quantum detection diode detecting a quantum particle generated from the terminal random number source generator; and

A terminal quantum random pulse generator for detecting a quantum particle event from the terminal quantum detection diode and generating a random pulse corresponding to the detection of the quantum particle; and

The terminal quantum random number control unit is a terminal quantum random number control unit configured to generate a symmetric encryption key by generating a quantum random number with a random random source generated through the terminal quantum random pulse generator;

The terminal quantum random number control unit transmits a terminal symmetric encryption key to a terminal pseudo random number generator configured with a microprocessor;

The terminal pseudo random number generator encrypts the terminal asymmetric encryption key through the terminal symmetric encryption key, and sequentially generates the terminal symmetric encryption key and the terminal asymmetric encryption key (the first terminal symmetric encryption key, the first terminal asymmetric encryption key, and the second terminal). A terminal quantum random number generator for generating a terminal symmetric encryption key, a second terminal asymmetric encryption key, a third terminal symmetric encryption key, and a third terminal asymmetric encryption key.

In one embodiment,

The cloud server consists of a cloud pseudorandom number generator, a cloud quantum random number generator, a cloud OTP memory storing the first symmetric encryption key, and the quantum terminal is a terminal OTP memory storing the first symmetric encryption key, a terminal quantum random number generator, a terminal pseudo random number generator, It consists of a security authentication switch and a quantum random number control unit.

The 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 controller, a random number source generator for emitting quantum particles, a quantum particle detection diode for detecting quantum particles generated from the random number source generator, and the A quantum random pulse generator and a quantum random number controller which detects a quantum particle event from a quantum detection diode and generates a random pulse corresponding to the detection of the quantum particle are composed of a microprocessor.

A quantum random number generator including a quantum random number control unit generating a cryptographic key by generating a quantum random number as a random random number source generated through the quantum random pulse generator is classified into a cloud quantum random number generator and a terminal quantum random number generator.

Pseudo random number generator generates pseudo random number by program and generates encryption key. It is classified into cloud pseudo random number generator and terminal pseudo random number generator.

When the cloud server transmits the initial symmetric encryption key stored in the cloud OTP memory to the quantum random number control unit inside the quantum terminal, the quantum terminal compares the initial symmetric encryption key of the terminal OTP memory and if it matches, the first login through the security authentication switch (Log -in) Join the network.

In the initial login (Log-in) network connection state, the first terminal symmetric encryption key is generated through the terminal quantum random number generator inside the quantum terminal and the terminal pseudo random number generator is generated by using a pseudo random number to the first terminal symmetric encryption key. A secondary terminal asymmetric encryption key is generated, and the primary terminal asymmetric encryption key and the primary terminal asymmetric encryption key are transmitted to the quantum random number control unit.

The quantum random number control unit stores the first terminal symmetric encryption key and the first terminal asymmetric encryption key in the terminal OTP memory and transmits the first terminal asymmetric encryption key to the cloud server.

The cloud server stores the primary terminal asymmetric encryption key in the cloud OTP memory.

The first cloud symmetric encryption key is generated through the cloud quantum random number generator inside the cloud server, and the cloud pseudo random number generator generates the first cloud asymmetric encryption key through the pseudo random number in the first cloud symmetric encryption key, and the first cloud symmetry encryption key is generated. After storing the encryption key and the primary cloud asymmetric encryption key in the cloud OTP memory, the primary cloud asymmetric encryption key is transmitted to the quantum random number controller.

Data transmission from the cloud server to the quantum terminal is transmitted to the primary terminal asymmetric encryption key, decrypted by the primary terminal symmetric encryption key.

Data transmission from the quantum terminal to the cloud server is transmitted to the primary cloud asymmetric encryption key, the data communication is decrypted by the primary cloud symmetric encryption key.

Delete the initial symmetric encryption key of terminal OTP memory at the first log-out.

When the secondary reconnection between the cloud server and the quantum terminal, if the transmission from the cloud server to the first terminal asymmetric encryption key from the quantum terminal, the quantum random controller decrypts with the primary terminal symmetric encryption key and the primary cloud asymmetric encryption from the quantum terminal to the cloud server When the data is transmitted to the key, the first cloud symmetric encryption key is decrypted by the second authentication (Log-in) through mutual authentication.

In one embodiment,

The quantum terminal is composed of a terminal pseudo random number generator, a terminal quantum random number generator, an OTP memory, a security authentication switch, and a quantum random number control unit.

The terminal pseudo random number generator in the quantum terminal and the cloud pseudo random number generator in the cloud server are terminal pseudo random number generators and cloud pseudo random number generators which are composed of microprocessors and generate the same pseudo random number by a program input pseudo random number program.

The terminal quantum random number generator is composed of a terminal random number source generator, a terminal quantum detection diode, a terminal quantum random pulse generator, and a terminal quantum random number controller to emit a quantum particle and generate a quantum particle generated from the terminal random number source generator. The terminal quantum detection diode and the terminal quantum random pulse generator for detecting a quantum particle event from the terminal quantum detection diode and generating a random pulse corresponding to the detection of the quantum particles are composed of a microprocessor, the terminal It is a terminal quantum random number control unit that generates a primary terminal quantum random number as a random random source generated through a quantum random pulse generator.

The terminal pseudo random number generator generates a pseudo random number by a program, generates a first symmetric encryption key, and transmits it to the terminal quantum random number control unit of the terminal quantum random number generator.

The terminal quantum random number controller receives the first symmetric cryptographic key, generates a first terminal asymmetric encryption key through the first terminal quantum random number, and transmits the generated symmetric cryptographic key to the quantum random number controller.

The quantum random number control unit stores the first symmetric encryption key and the first terminal asymmetric encryption key in the OTP memory and transmits the first terminal asymmetric encryption key to the cloud server.

Cloud pseudo random number generator inside the cloud server generates a pseudo random number by a program and generates a first symmetric encryption key through the pseudo random number generated by the same program as the terminal pseudo random number generator and encrypts it with the first terminal asymmetric encryption key. The second cloud symmetric encryption key is generated and transmitted to the quantum random number control unit inside the quantum terminal.

The quantum random number control unit decrypts the primary cloud symmetric encryption key received from the cloud server with the primary terminal asymmetric encryption key stored in the OTP memory, and if the primary symmetric encryption key matches, it logs in through the security authentication switch (Log-in) network. Connect the network.

The terminal quantum random number control unit inside the terminal quantum random number generator generates a secondary terminal quantum random number as a random random source generated through the terminal quantum random pulse generator.

The terminal pseudo random number generator generates a pseudo random number by a program, generates a second symmetric encryption key, and transmits it to the terminal quantum random number control unit of the terminal quantum random number generator.

The terminal quantum random number control unit receives the second symmetric encryption key, generates a second terminal asymmetric encryption key through the second terminal quantum random number, and transmits the quantum random number control unit.

The quantum random number control unit stores the secondary symmetric encryption key in the OTP memory and transmits the secondary terminal asymmetric encryption key to the cloud server.

The quantum random number control unit deletes the primary symmetric encryption key and the primary terminal asymmetric encryption key of the OTP memory and blocks the network through the security authentication switch when logging out.

If the quantum random number control unit receives the secondary terminal asymmetric encryption key transmitted when the cloud server is reconnected, decrypts it with the secondary symmetric encryption key of the OTP memory, and connects the login (Log-in) network through the security authentication switch. A quantum security terminal characterized by.

In one embodiment,

The high-speed quantum random number generator in the security platform includes a high-speed random number source generator and a high-speed random number generator, and generates a high-speed symmetric cryptographic key with a random random number generated by the high-speed random number source generator The random asymmetric generator generates a fast asymmetric encryption key and transmits the fast asymmetric encryption key and the fast asymmetric encryption key to the cloud server.

The cloud server transmits the fast asymmetric encryption key to the modem chip of the MAC address of the quantum terminal.

The quantum terminal consists of a Modem Chip, MCU, and Power Amp.The MCU receives the fast asymmetric encryption key through the Modem Chip, amplifies the quantum terminal ID data encoded with the fast asymmetric encryption key in the Power Amp, and then uses the Modem Chip. Send to the cloud server through.

The cloud server logs the user between the cloud server and the quantum terminal when the quantum terminal ID data decrypted with the high speed asymmetric encryption key is the user who matches the MAC address of the quantum terminal mode chip. -in) Enable bidirectional tunneling data communication.

When the cloud local server is connected to the cloud server, the fast quantum random number generator generates a fast symmetric encryption key and a fast asymmetric encryption key and transmits the fast asymmetric encryption key to the cloud local server.

The cloud local server encrypts the cloud local server ID data with a fast asymmetric encryption key. When the cloud local server ID data is transmitted to the cloud server, the cloud server decrypts the cloud local server ID data with the fast symmetric encryption key. Opens user-login bidirectional tunneling data communication between the server and the cloud local server.

The local quantum random number generator includes a local random number generator and a local pseudorandom number generator identical to the NFC pseudorandom number OTP data to generate a local symmetric encryption key with a random random source generated by the local random number source generator and generate the local symmetric encryption key. Is a local quantum random number generator that generates a local asymmetric cryptographic key through the same local pseudorandom number generator as the NFC pseudorandom OTP data.

The cloud local server transmits the local asymmetric encryption key generated through the local quantum random number generator to the portable terminal.

Tagging NFC pseudorandom number OTP on the portable terminal NFC chip transmits the NFC pseudorandom number OTP data to the portable terminal to transmit the NFC pseudorandom number OTP data encrypted with a local asymmetric encryption key to the cloud local server.

The cloud local server decrypts the NFC pseudorandom OTP data encrypted with the local asymmetric encryption key with the local symmetric encryption key, and if the NFC pseudorandom OTP data of the local pseudorandom number generator matches the NFC pseudorandom OTP data tagged to the portable terminal, the cloud The quantum random password smartphone quantum security terminal receiving the image data captured by the surveillance camera, characterized in that for transmitting the data of the local server to the portable terminal.

In one embodiment,

The high-speed quantum random number generator in the security platform of the self-governing body is composed of a high-speed random number source generator and a high-speed random number generator, and generates a high-speed symmetric cryptographic key with a random random number source generated by the high-speed random number source generator. The high speed asymmetric encryption key is generated and encrypted to transmit the high speed asymmetric encryption key and the high speed asymmetric encryption key to the LPWAN cloud server.

LPWAN cloud server transmits fast asymmetric encryption key to modem chip of quantum terminal MAC address.

The quantum terminal consists of a Modem Chip, MCU, Power Amp, and Sensor.The MCU receives the fast asymmetric encryption key through the Modem Chip and amplifies the sensor encrypted data encrypted by the fast asymmetric encryption key from the sensor. Send the LPWAN cloud server to LPWAN cloud server through Modem Chip.

LPWAN cloud server stores the sensor data decrypted with the fast symmetric encryption key from the sensor encrypted data encrypted with the fast asymmetric encryption key.

When the cloud local server connects to the LPWAN cloud server, it generates the fast symmetric encryption key and the fast asymmetric encryption key through the fast quantum random number generator and sends the fast asymmetric encryption key to the cloud local server of the access IP address through the VPN (Virtual Private Network). send.

If the cloud local server sends the encrypted ID encrypted with the user ID with the fast asymmetric encryption key to the LPWAN cloud server through the VPN, the LPWAN cloud server decrypts it with the fast symmetric encryption key and if the user ID is registered, the LPWAN cloud server and the cloud local Transmit sensor data decrypted by fast symmetric encryption key through bidirectional tunneling data communication between servers.

The local quantum random number generator includes a local random number generator and a local pseudorandom number generator identical to the NFC pseudorandom number OTP data to generate a local symmetric encryption key with a random random source generated by the local random number source generator and generate the local symmetric encryption key. Is a local quantum random number generator that generates a local asymmetric cryptographic key through the same local pseudorandom number generator as the NFC pseudorandom OTP data.

The cloud local server transmits the local asymmetric encryption key generated through the local quantum random number generator to the smartphone.

 NFC pseudo random number OTP data stored NFC pseudo random number OTP tag on the smartphone NFC chip stored NFC pseudo random number OTP data sent to the smartphone, NFC pseudo random number OTP data is encrypted with a local asymmetric encryption key to the cloud local server do.

The cloud local server decrypts the NFC pseudorandom OTP data encrypted with the local asymmetric encryption key with the local symmetric encryption key, and if the NFC pseudorandom OTP data of the local pseudorandom number generator matches the NFC pseudorandom OTP data tagged on the smartphone, cloud local It is a quantum random password smartphone receiving the image data captured by the surveillance camera, characterized in that for transmitting the decoded sensor data of the server to the smartphone.

In one embodiment,

The quantum random number generator includes a random number source generator, a quantum detection diode, a quantum random pulse generator, a quantum random controller, and an input / output unit.

The random number source generator is a random number source generator that emits quantum particles from at least one of a light-emitting diode (LED), a laser diode (LD), and a radioisotope.

The quantum detection diode is a quantum detection diode that detects quantum particles generated from the random number source generator through a diffraction grating.

Referring to FIG. 1, light has duality (waveability, particleiness), and in the present invention, interference of light generated through a diffraction grating such as a single slit or a double slit based on wave nature (Cornu's spiral) ) Quantum random number is generated by processing the amount of light received by the quantum detection diode that detects the pattern and detects random photons based on the particle as an electrical signal.

The quantum random pulse generator is a quantum random pulse generator that 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 controller is a quantum random number controller configured of a microprocessor that generates quantum random numbers using random random source generated through the quantum random pulse generator.

Referring to FIG. 2, the input / output unit includes a power port, an input data port, an output data port, and a ground port, and integrates a protruding input / output unit coupled to the recessed input / output unit of the pseudo random number generator 1 on a plate. It is a quantum random number generator (2) of the structure sealed by the housing (Housing) coupled to the recessed input and output unit of the pseudo random number generator.

In one embodiment, the quantum random number generated by the quantum random number generator is not hackable, but a security technology using a pair of quantum random numbers has a problem in the network.

The present invention provides a pair of pseudo random number generators and random quantum random numbers programmed with the same program to enable commercialization on the network through the second pseudo random number generated by the pseudo random number generator generated in the first quantum random number generated by the quantum random number generator. It is characterized in that the quantum random number generator to generate a physically defective using each other in the form of USB (Universal Serial Bus).

In addition, data communication is possible through integrated IO board and embedded high density printed circuit board (HDI PCB).

 The pseudo random number generator is a power port inserted into a recessed input / output unit of a quantum terminal, a protruding input / output unit including an input data port, an output data port, and a ground port, and a recessed power supply of the opposite side into which the protruding input / output unit of a quantum random number generator is inserted. A pseudo random number generator (1) composed of an integrated housing including a recessed input / output unit and a pseudo random number control unit including a port, an input data port, an output data port, and a ground port.

When the protruding input / output unit of the pseudo random number generator is inserted into the recessed input / output unit of the quantum terminal, the pseudo random controller is driven by receiving power through a power port and a ground port.

The pseudo random number control unit receives GPS time data from a quantum terminal through an input data port and an output data port, and generates a pseudo random number encryption key through a pseudo random number in a GPS time zone.

When the protruding input / output unit of the quantum random number generator is inserted into the recessed input / output unit of the pseudo random number generator, the quantum random number controller is driven by receiving power through the power port and the ground port.

The quantum random number control unit generates a quantum random number encryption key (symmetric cryptographic key) through a quantum random number generated through a random number source generator, a quantum detection diode, and a quantum random pulse generator inside the quantum random number generator to generate a pseudo random number inside the pseudo random number generator. Send to the controller.

The pseudo random number controller is an LPWAN terminal quantum random number generator using a quantum random number, characterized in that for receiving a quantum random number encryption key and generating an asymmetric encryption key encrypted using a pseudo random number encryption key, through the same pair of pseudo random number generators. A pair of asymmetric encryption keys generated by a pseudorandom number generation program generated by different quantum random numbers cannot be bidirectionally decoded, but transmitted in one direction. Data can be decrypted for one reception or transmission, and can only be decrypted by quantum random numbers, creating a unique security system system.

In one embodiment.

The quantum server consists of a fast quantum random number generator and a fast random number generator. The fast quantum random number generator generates a fast symmetric cryptographic key through the quantum random number.

The high-speed random number generator generates a fast asymmetric encryption key through a pseudo-random program in a high-speed symmetric encryption key, generates a cloud encryption key that encrypts the cloud asymmetric encryption key received from the cloud server, and sends it to the cloud server.

The fast random number generator is a fast random number generator that generates a terminal encryption key that encrypts the terminal asymmetric encryption key received from the quantum terminal through the fast asymmetric encryption key and transmits the terminal encryption key to the quantum terminal.

The cloud quantum random number generator inside the cloud server is configured to include a cloud quantum random number control unit, a cloud random number source generator, and a cloud pseudorandom number generator, and the cloud quantum random number control unit is a random random source generated by the cloud random number source generator. A cloud quantum random number generator for generating a key and encrypting and generating a first cloud asymmetric encryption key through a cloud pseudorandom number generator in the first cloud symmetric encryption key.

The terminal quantum random number generator in the quantum terminal is configured to include a terminal quantum random number control unit, a terminal random number source generator, and a terminal pseudo random number generator. The terminal quantum random number control unit is a random random source generated through the terminal random number source generator. A terminal quantum random number generator for generating a key and encrypting and generating a first terminal asymmetric encryption key through the terminal pseudo random number generator in the first terminal symmetric encryption key.

The cloud server transmits the first cloud asymmetric encryption key to the quantum server through the network.

The fast quantum random number generator and the fast random number generator in the quantum server generate a first fast symmetric cryptographic key and a first fast asymmetric cryptographic key and receive the first cloud asymmetric cryptographic key from the cloud server through the first fast asymmetric cryptographic key. Creates an encrypted cloud encryption key and sends it to the cloud server.

The quantum terminal transmits the first terminal asymmetric encryption key to the quantum server through the network.

The fast quantum random number generator and the fast random number generator in the quantum server generate a second fast symmetric encryption key and a second fast asymmetric encryption key and receive the first terminal asymmetric encryption key from the quantum terminal through the second fast asymmetric encryption key. The terminal encryption key is encrypted and the terminal encryption key is transmitted to the quantum terminal.

In the data communication between the cloud server and the quantum terminal, if the cloud server generates the second cloud symmetric encryption key and the second cloud asymmetric encryption key through the cloud quantum random number generator, and transmits the second cloud asymmetric encryption key to the quantum terminal, The quantum terminal encrypts the terminal encryption key with the second cloud asymmetric encryption key and retransmits it.

The cloud server transmits the terminal encryption key decrypted with the second cloud symmetric encryption key to the quantum server.

The quantum server transmits the first terminal asymmetric encryption key decrypted with the second fast asymmetric encryption key to the cloud server through the second fast asymmetric encryption key.

When the quantum terminal generates the second terminal symmetric encryption key and the second terminal asymmetric encryption key through the terminal quantum random number generator, and transmits the second terminal asymmetric encryption key to the cloud server, the cloud server encrypts the cloud with the second terminal asymmetric encryption key. Encrypt the encryption key and resend it.

The quantum terminal transmits the cloud encryption key decrypted with the second terminal symmetric encryption key to the quantum server.

The quantum server transmits, to the quantum terminal, the first cloud asymmetric encryption key obtained by decrypting the cloud encryption key encrypted with the first fast asymmetric encryption key through the first fast symmetric encryption key.

Data transmission from the cloud server to the quantum terminal is transmitted to the first terminal asymmetric encryption key, and decrypted with the first terminal symmetric encryption key.

Data transmission from the quantum terminal to the cloud server is a quantum security terminal characterized in that the data communication to decrypt the first cloud symmetric encryption key, when transmitted to the first cloud asymmetric encryption key.

In one embodiment.

The quantum server consists of a fast quantum random number generator and a fast random number generator.

The fast quantum random number generator is a fast quantum random number generator that generates fast symmetric cryptographic keys through quantum random numbers.

The fast pseudorandom number generator is a fast random number generator that generates a fast asymmetric cryptographic key through a pseudorandom program.

The cloud server is composed of a cloud quantum random number generator and a cloud pseudorandom number generator. The cloud quantum random number generator inside the cloud server generates a first cloud symmetric encryption key as a random random number source and a cloud pseudo random number generator on the first cloud symmetric encryption key. Through the cloud server for encrypting the first cloud asymmetric encryption key.

The local server is configured to include a terminal quantum random number generator and a terminal pseudorandom number generator. The terminal quantum random number generator in the local server generates a first terminal symmetric encryption key as a random random source and generates a terminal pseudo on the first terminal symmetric encryption key. The local server encrypts and generates the first terminal asymmetric encryption key through the random number generator.

The cloud server transmits the first cloud asymmetric encryption key to the quantum server through the network.

The fast quantum random number generator and the fast random number generator in the quantum server generate a first fast symmetric cryptographic key and a first fast asymmetric cryptographic key and receive the first cloud asymmetric cryptographic key from the cloud server through the first fast asymmetric cryptographic key. Creates an encrypted cloud encryption key and sends it to the cloud server.

The local server transmits the first terminal asymmetric encryption key to the quantum server through the network.

The fast quantum random number generator and the fast random number generator in the quantum server generate a second fast symmetric encryption key and a second fast asymmetric encryption key and receive the first terminal asymmetric encryption key from the local server through the second fast asymmetric encryption key. The terminal encryption key is encrypted and the terminal encryption key is transmitted to the local server.

In the login data communication between the cloud server and the local server, when the cloud server generates the second cloud symmetric encryption key and the second cloud asymmetric encryption key through the cloud quantum random number generator, and transmits the second cloud asymmetric encryption key to the local server. The local server encrypts the terminal encryption key with the second cloud asymmetric encryption key and retransmits it.

The cloud server transmits the terminal encryption key decrypted with the second cloud symmetric encryption key to the quantum server.

The quantum server transmits the first terminal asymmetric encryption key decrypted with the second fast asymmetric encryption key to the cloud server through the second fast asymmetric encryption key.

When the local server generates the second terminal symmetric encryption key and the second terminal asymmetric encryption key through the terminal quantum random number generator and transmits the second terminal asymmetric encryption key to the cloud server, the cloud server encrypts the second terminal asymmetric encryption key cloud. Encrypt the encryption key and resend it.

The local server transmits the cloud encryption key decrypted with the second terminal symmetric encryption key to the quantum server.

The quantum server transmits the first cloud asymmetric encryption key obtained by decrypting the cloud encryption key encrypted with the first fast asymmetric encryption key to the local server through the first fast symmetric encryption key.

When the data transmission from the cloud server to the local server is transmitted by the first terminal asymmetric encryption key, the data is decrypted by the terminal first symmetric encryption key.

When the data is transmitted from the local server to the cloud server by the first cloud asymmetric encryption key, the data is logged in through data communication that is decrypted by the first cloud symmetric encryption key.

When logging out, the first fast symmetric encryption key, the first fast asymmetric encryption key, the second fast symmetric encryption key, the second fast asymmetric encryption key, the first terminal asymmetric encryption key, the first terminal symmetric encryption key, Quantum security, characterized in that the second terminal asymmetric encryption key, the second terminal symmetric encryption key, the first cloud asymmetric encryption key, the first cloud symmetric encryption key, the second cloud asymmetric encryption key, the second cloud symmetric encryption key is destroyed It is a terminal.

In one embodiment.

The fast quantum random number generator in the quantum server consists of a fast random number source generator, fast quantum detection diode, fast quantum random pulse generator, fast quantum random number controller, and high speed random number generator.

A high speed random number source generator emitting quantum particles, a high speed quantum detection diode detecting quantum particles generated from the high speed random number source generator, and a random pulse corresponding to detection of quantum particles by detecting a quantum particle event from the high speed quantum detection diode The fast quantum random pulse generator and the fast quantum random number controller for generating a fast quantum random number to generate a fast symmetric cryptographic key by generating a fast quantum random number as a random random number source generated through the fast quantum random pulse generator It is a control unit.

The fast quantum random number control unit transmits the fast symmetric encryption key to a high speed random number generator composed of a microprocessor.

The fast random number generator generates a fast asymmetric encryption key through a fast symmetric encryption key, generates a cloud encryption key that encrypts the cloud asymmetric encryption key received from the cloud server, and transmits it to the cloud server.

The fast random number generator is a fast random number generator that generates a fast asymmetric encryption key through a fast symmetric encryption key, generates a terminal encryption key that encrypts the terminal asymmetric encryption key received from the quantum terminal, and transmits the generated terminal encryption key to the quantum terminal.

The cloud quantum random number generator in the cloud server is composed of a cloud random number source generator, a cloud quantum detection diode, a cloud quantum random pulse generator, a cloud quantum random number controller, a cloud pseudo random number generator, and a cloud random number source generator that emits quantum particles and the cloud Cloud quantum detection diode for detecting quantum particles generated from random source generator and cloud quantum random pulse generator and cloud quantum random number for detecting quantum particle events from the cloud quantum detection diode and generating random pulses corresponding to detection of quantum particles The control unit is a cloud quantum random number control unit configured to generate a cloud symmetric encryption key by generating a quantum random number with a random random number source generated through the cloud quantum random pulse generator.

The cloud quantum random number control unit transmits the cloud symmetric encryption key to the cloud pseudorandom number generator composed of a microprocessor.

The cloud pseudorandom number generator is a cloud quantum random number generator that generates a cloud asymmetric encryption key through a cloud symmetric encryption key.

The terminal quantum random number generator in the quantum terminal is composed of a terminal random number source generator, a terminal quantum detection diode, a terminal quantum random pulse generator, a terminal quantum random number controller, a terminal pseudo random number generator, and a terminal random number source generator for emitting quantum particles and the terminal. A terminal quantum detection diode for detecting quantum particles generated from a random number source generator, and a terminal quantum random pulse generator and a terminal quantum random number for detecting quantum particle events from the terminal quantum detection diode and generating random pulses corresponding to the detection of quantum particles. The controller is a terminal quantum random number controller configured to generate a terminal symmetric encryption key by generating a quantum random number with a random random source generated through the terminal quantum random pulse generator.

The terminal quantum random number control unit transmits the terminal symmetric encryption key to the terminal pseudo random number generator composed of a microprocessor.

The terminal pseudo random number generator is a terminal quantum random number generator that generates and generates a terminal asymmetric encryption key through the terminal symmetric encryption key.

The cloud server transmits the first cloud asymmetric encryption key to the quantum server through the network.

The high speed random number generator in the quantum server generates a cloud encryption key that encrypts the first cloud asymmetric encryption key received from the cloud server through the fast asymmetric encryption key and transmits it to the cloud server.

The quantum terminal transmits the first terminal asymmetric encryption key to the quantum server through the network.

The fast random number generator in the quantum server generates a terminal encryption key that encrypts the first terminal asymmetric encryption key received from the quantum terminal through the fast asymmetric encryption key and transmits the terminal encryption key to the quantum terminal.

In the data communication between the cloud server and the quantum terminal, when the cloud server generates a second cloud asymmetric encryption key and transmits it to the quantum terminal through the cloud quantum random number generator, the quantum terminal encrypts the terminal encryption key with the second cloud asymmetric encryption key. Resend it.

The cloud server transmits the terminal encryption key decrypted with the second cloud symmetric encryption key to the quantum server.

The quantum server transmits the first terminal asymmetric encryption key decrypted with the fast asymmetric encryption key to the cloud server through the fast symmetric encryption key.

When the quantum terminal generates the second terminal asymmetric encryption key through the terminal quantum random number generator and transmits it to the cloud server, the cloud server encrypts and retransmits the cloud encryption key with the second terminal asymmetric encryption key.

The quantum terminal transmits the cloud encryption key decrypted with the second terminal symmetric encryption key to the quantum server.

The quantum server transmits to the quantum terminal a first cloud asymmetric encryption key obtained by decrypting the cloud encryption key encrypted with the fast asymmetric encryption key through the fast symmetric encryption key.

When the data transmission from the cloud server to the quantum terminal is transmitted to the first terminal asymmetric encryption key authenticated through the quantum server, the quantum terminal decrypts with the first terminal symmetric encryption key.

When the data transmission from the quantum terminal to the cloud server is transmitted to the first cloud asymmetric encryption key authenticated through the quantum server, the cloud server is a quantum security terminal characterized in that the data communication to decrypt with the first cloud symmetric encryption key.

In one embodiment.

The quantum server consists of a fast quantum random number generator and a fast random number generator. The fast quantum random number generator generates a fast symmetric cryptographic key through the quantum random number, and the fast random number generator generates a high speed symmetric cryptographic key through a pseudo random number program. Generate an asymmetric encryption key.

The cloud server consists of a cloud quantum random number generator and a cloud pseudorandom number generator. The cloud quantum random number generator generates a cloud symmetric encryption key as a random random source and encrypts the cloud asymmetric encryption key through the cloud pseudo random number generator on the cloud symmetric encryption key. Cloud quantum random number generator to generate.

The local server includes a terminal quantum random number generator and a terminal pseudo random number generator, generating a terminal symmetric encryption key through the terminal quantum random number generator, and generating and encrypting the terminal asymmetric encryption key through the terminal pseudo random number generator. It is a terminal quantum random number generator.

The cloud server sends the cloud asymmetric encryption key to the quantum server through the network.

The high-speed random number generator inside the quantum server generates a cloud encryption key that encrypts the cloud asymmetric encryption key received from the cloud server through the fast asymmetric encryption key and transmits it to the cloud server.

The local server sends the terminal asymmetric encryption key to the quantum server through the network.

The fast random number generator in the quantum server generates a terminal encryption key that encrypts the terminal asymmetric encryption key received from the local server through the fast asymmetric encryption key and transmits the terminal encryption key to the local server.

In login data communication between the cloud server and the local server, when the cloud server transmits the cloud asymmetric encryption key to the local server, the local server encrypts the terminal encryption key with the cloud asymmetric encryption key and retransmits it.

The cloud server transmits the terminal encryption key decrypted with the cloud symmetric encryption key to the quantum server.

The quantum server transmits the terminal asymmetric encryption key decrypted with the fast asymmetric encryption key to the cloud server through the fast symmetric encryption key.

When the local server transmits the terminal asymmetric encryption key to the cloud server, the cloud server encrypts the cloud encryption key with the terminal asymmetric encryption key and retransmits it.

The local server transmits the cloud encryption key decrypted with the terminal symmetric encryption key to the quantum server.

The quantum server sends the cloud asymmetric encryption key decrypted from the cloud encryption key encrypted with the fast asymmetric encryption key to the local server through the fast symmetric encryption key.

Data transmission from the cloud server to the local server is transmitted by the terminal asymmetric encryption key, decrypted by the terminal symmetric encryption key.

Data transfer from the local server to the cloud server is a cloud asymmetric encryption key, quantum security terminal characterized in that the terminal asymmetric encryption key, cloud asymmetric encryption key is destroyed when logging in and log-out through the data communication decrypted by the cloud asymmetric encryption key to be.

In one embodiment,

The high-speed quantum random number generator in the security platform includes a high-speed random number source generator and a high-speed random number generator, and generates a high-speed symmetric cryptographic key with a random random number generated by the high-speed random number source generator The random asymmetric generator generates a fast asymmetric encryption key and transmits the fast asymmetric encryption key and the fast asymmetric encryption key to the cloud server.

The cloud server transmits the fast asymmetric encryption key to the modem chip of the MAC address of the quantum terminal.

The quantum terminal consists of a Modem Chip, MCU, and Power Amp.The MCU receives the fast asymmetric encryption key through the Modem Chip and amplifies the quantum terminal ID data in which the quantum terminal ID data is encrypted with the fast asymmetric encryption key in the power amp. To the cloud server through the Modem Chip.

The cloud server logs the user between the cloud server and the quantum terminal when the quantum terminal ID data decrypted with the high speed asymmetric encryption key is the user who matches the MAC address of the quantum terminal mode chip. -in) Enable bidirectional tunneling data communication.

When the cloud local server is connected to the cloud server, the fast quantum random number generator generates a fast symmetric encryption key and a fast asymmetric encryption key and transmits the fast asymmetric encryption key to the cloud local server.

Cloud local server encrypts cloud local server ID data with high speed asymmetric encryption key. When the cloud local server ID data is transmitted to the cloud server, the cloud server decrypts with high speed symmetric encryption key and the cloud local server user whose cloud local server ID data is registered. In this case, the user log-in bidirectional tunneling data communication between the cloud server and the cloud local server is opened and between the quantum terminal ID data and the cloud local server ID data user registration ID data, between the quantum terminal and the cloud local server. User Login (Log-in) A quantum security terminal characterized by opening a multi-channel tunneling data communication through the two-way tunneling data communication.

In one embodiment,

When the cloud local server is connected to the cloud server, the fast quantum random number generator generates the fast symmetric encryption key and the fast asymmetric encryption key and sends the fast asymmetric encryption key to the cloud local server.The cloud local server is the high speed asymmetric encryption key. Encryption Cloud Local Server Encrypting ID Data When ID data is transmitted to the cloud server, the cloud server decrypts it with a fast symmetric encryption key, and if the cloud local server ID data is a registered cloud local server user, between the cloud server and the cloud local server. User login (Log-in) A quantum security terminal characterized in that to open the two-way tunneling data communication.

In one embodiment,

When the cloud local server connects to the cloud server, it generates a fast symmetric encryption key and a fast asymmetric encryption key through the fast quantum random number generator, and sends the fast asymmetric encryption key to the cloud local server, and the cloud local server is a fast asymmetric encryption key. If the encrypted quantum terminal ID data encrypted data is transmitted to the cloud server, the cloud server decrypts with a fast symmetric encryption key and the user login between the quantum terminal and the cloud local server when the quantum terminal ID data is registered. Log-in) A quantum security terminal characterized by opening two-way tunneling data communication.

In one embodiment.

Quantum terminal, local server, cloud terminal, cloud server, surveillance camera, automatic controller, broadcasting device, solar panel, inverter, fuel cell controller, automation control server, automatic control device control server, water meter, gas meter, electricity meter, calorimeter , Water quality sensor, flow sensor, gas sensor, fire detector, home delivery vehicle, golf cart, public bicycle, health car, security light, street light, leak detection sensor, bus information terminal, integrated meter, LPWAN (Low Power Wide Area Network) A quantum security terminal, characterized in that any one or more of the terminal.

In one embodiment.

The quantum terminals are Long Term Evolution (LTE), LoRA, NB-IoT, Sigfox, Ultra Narrow Band Wide Area Network (UNBWAN) or LoRA Wide Area Network (LoRAWAN) or WeightlessWAN or Long Term Evolution Wide Area Network (LTEWAN), LPWAN It is a quantum security terminal, characterized in that the quantum terminal using any one or more communication methods of (Low Power Wide Area Network).

In one embodiment.

Data transmission from the cloud server to the quantum terminal is decrypted with a local symmetric encryption key when it is transmitted to the local asymmetric encryption key, and data transmission from the quantum terminal to the cloud server is transmitted with the cloud asymmetric encryption key. Data communication is performed by logging in to the server and quantum terminal through user authentication, and local asymmetric encryption key, cloud symmetric encryption key, cloud asymmetric encryption key, and cloud symmetric encryption key are deleted during logout. It is a quantum security terminal characterized in that.

In one embodiment.

The quantum random number generator and the pseudo random number generator are quantum security terminals characterized in that they are integrated into an embedded PCB or a high density printed circuit board (HDI PCB) to communicate data through an IO port.

In one embodiment.

By further configuring the ISP provider control server, the ISP operator control server generates a hybrid symmetric encryption key through the hybrid quantum random number generator, and then hybrid asymmetric encryption key through the same hybrid pseudo random number generator with the NFC pseudo random number OTP data in the hybrid symmetric encryption key. Generate and transmit to the smartphone, tag the NFC pseudo-random number OTP stored in the same NFC pseudo-random number OTP data to the smartphone NFC chip to the NFC NFC random number OTP data to the smartphone to transmit the hybrid asymmetric cryptography NFC pseudo-random number encrypted with key is transmitted to ISP operator control server, ISP operator control server decrypts data encrypted with hybrid asymmetric encryption key received from smartphone by hybrid symmetric encryption key and NFC pseudo random number of hybrid pseudo random number generator OTP Day And if they match, ISP provider control server is a quantum random number password smartphone receiving transmits the image data shot by the monitoring camera, characterized in that for transmitting data to the smart phone.

In one embodiment.

The low-terminal quantum random number generator is configured to include a low-speed random number source generator and a low-speed pseudo random number generator, generating a terminal symmetric encryption key through the low-speed pseudo random number generator, and a low-terminal random number source generator to the terminal symmetric encryption key. It is a low-terminal quantum random number generator that encrypts and generates a terminal asymmetric cryptographic key with a random random number generated. The high-speed quantum random number generator is composed of a high-speed random number source generator and a fast random number generator. Is a high-speed quantum random number generator that generates and encodes a high-speed asymmetric cryptographic key with a random random number source generated by the high-speed symmetric cryptographic key through a high-speed random number source generator. It is configured to include a generator, and local through a slow local pseudorandom number generator. A quantum security terminal characterized by a low-speed local quantum random number generator generating a symmetric encryption key and generating a local asymmetric encryption key through a random random number source generated by the low-speed local random source generator.

In one embodiment.

The high-speed quantum random number generator in the security platform includes a high-speed random number generator and a high-speed random number generator to generate a high speed symmetric cryptographic key through a high speed random number generator and generate a high speed symmetric cryptographic key through the high speed symmetric cryptographic key. A random asymmetric cryptographic key is used to generate a fast asymmetric cryptographic key.The local quantum random number generator consists of a local random number generator and a local pseudorandom number generator identical to the NFC pseudorandom number OTP data. It is a quantum security terminal characterized by generating a local symmetric encryption key to generate a local asymmetric encryption key with a random random source generated through the local random number source generator in the local symmetric encryption key.

In one embodiment.

Pseudo random number generator is a pseudo random number generator that consists of microprocessor and generates pseudo random number by random number generation program. It generates symmetric encryption key through pseudo random number generated by pseudo random number controller Send to random number controller.

The quantum random number generator is composed of a random number source generator, a quantum detection diode, a quantum random pulse generator, and a quantum random number controller, and includes a quantum detection diode for detecting quantum particles generated from a random number source generator that emits quantum particles and the quantum detection diode. The quantum random number control unit includes a quantum random pulse generator that detects a quantum particle event and generates a random pulse corresponding to the detection of the quantum particle, and a microprocessor that generates quantum random numbers using a random random source generated by the quantum random pulse generator.

The quantum random controller is a quantum security terminal, characterized in that for receiving a symmetric encryption key from the pseudo random number generator to generate an asymmetric encryption key through the quantum random number.

In one embodiment.

The fast pseudorandom number generator generates a fast symmetric cryptographic key through a pseudorandom program.

The fast quantum random number generator generates a fast asymmetric cryptographic key through the quantum random number in the fast symmetric cryptographic key.

The cloud quantum random number generator is composed of a cloud quantum random number control unit and a cloud pseudorandom number generator, and the cloud pseudo random number generator generates a cloud symmetric encryption key through a pseudo random number program.

The cloud quantum random number controller generates a cloud asymmetric encryption key through the quantum random number in the cloud symmetric encryption key.

The terminal quantum random number generator includes a terminal quantum random number control unit and a terminal pseudo random number generator, and the terminal pseudo random number generator generates a terminal symmetric encryption key through a pseudo random number program.

The terminal quantum random number control unit is a quantum security terminal, characterized in that to generate a terminal asymmetric encryption key through the quantum random number to the terminal symmetric encryption key.

In one embodiment,

The cloud local server receives the image data captured by the surveillance camera, and outputs the image data of the screen copied through the monitor terminal to the image displayed on the monitor screen through the output terminal.

When the communication modem inside the cloud local server sends the image data output through the output terminal to the smartphone,

The hybrid quantum random number generator in the cloud local server includes a hybrid random number generator and a hybrid pseudo random number generator that generates the same pseudo random number as the NFC pseudo random number OTP data.

The pseudosymmetric encryption key is generated through a hybrid pseudorandom number generator that generates a hybrid symmetric encryption key using a random random number source generated through a hybrid random number source generator and generates the same pseudo random number as the NFC pseudo random number OTP data in the hybrid symmetric encryption key. It is a hybrid quantum random number generator that generates hybrid asymmetric encryption key by encrypting with random number (pseudo random number generated by hybrid pseudo random number generator that generates the same pseudo random number as NFC pseudo random number OTP data).

The cloud local server transmits the hybrid asymmetric encryption key generated by the hybrid quantum random number generator to the smartphone.

When tagging (accessing or contacting) the NFC pseudorandom number OTP (sticker or tag) to the smartphone NFC chip, the NFC pseudorandom number OTP (sticker or tag) is transferred to the smartphone. The NFC pseudorandom OTP data encrypted with the hybrid asymmetric encryption key is transmitted to the cloud local server.

The cloud local server decrypts the NFC pseudorandom OTP data encrypted with the hybrid asymmetric encryption key received from the smartphone with the hybrid symmetric encryption key, and the NFC pseudorandom OTP data of the hybrid pseudorandom number generator and the NFC pseudorandom OTP data tagged on the smartphone. If it matches,

The cloud local server is a quantum random password smartphone that receives the image data taken from the surveillance camera, characterized in that for transmitting the image data to the smartphone.

In one embodiment,

The high-speed quantum random number generator in the security platform includes a high-speed random number source generator and a high-speed random number generator, and generates a high-speed symmetric cryptographic key with a random random number generated by the high-speed random number source generator The random asymmetric generator generates a fast asymmetric encryption key and transmits the fast asymmetric encryption key and the fast asymmetric encryption key to the cloud server.

The cloud server transmits the fast asymmetric encryption key to the MAC address of the smartphone modem chip.

Surveillance camera is composed of Modem Chip, MCU, Power Amp, Image Capture Sensor, and MCU receives High Speed Asymmetric Cryptographic Key from Cloud Server through Modem Chip and collects Video Sensor data collected from Image Capture Sensor. The sensor encrypted data encrypted with the key is amplified in the power amp and transmitted to the cloud server through the modem chip.

The cloud server stores the image sensor data obtained by decrypting the image sensor encrypted data encrypted with the fast asymmetric encryption key.

When the cloud local server is connected to the cloud server, the fast quantum random number generator generates a fast symmetric encryption key and a fast asymmetric encryption key and transmits the fast asymmetric encryption key to the cloud local server.

When the cloud local server sends the encrypted ID encrypted with the user ID with the fast asymmetric encryption key to the cloud server, the cloud server decrypts the fast ID with the fast symmetric encryption key and bidirectional tunneling data between the cloud server and the cloud local server when the user ID is registered. Through the communication, the image sensor data decoded by the fast symmetric encryption key is transmitted.

The local quantum random number generator consists of a local random number generator and a local pseudo random number generator that generates the same pseudo random number as the NFC pseudo random number OTP data.The local quantum random number generator generates a local symmetric cryptographic key with a random random source generated by the local random number source generator. It is a local quantum random number generator for generating a local asymmetric encryption key through the local pseudo random number generator for generating the same pseudo random number OTP data in the local symmetric encryption key.

The cloud local server transmits the local asymmetric encryption key generated through the local quantum random number generator to the smartphone.

When tagging NFC pseudorandom number OTP on smartphone NFC chip, NFC pseudorandom number OTP data is transmitted to smartphone to transmit NFC pseudorandom number OTP data encrypted with local asymmetric encryption key to cloud local server.

When the cloud local server decrypts the NFC pseudorandom OTP data encrypted with the local asymmetric encryption key with the local symmetric encryption key, when the NFC pseudorandom OTP data of the local pseudorandom number generator matches the NFC pseudorandom OTP data tagged on the smartphone,

It is a quantum random password smartphone that receives the image data captured by the surveillance camera for transmitting the decoded image sensor data of the cloud local server to the smartphone.

In one embodiment,

The high-speed quantum random number generator in the security platform includes a high-speed random number generator and a high-speed random number generator to generate a high speed symmetric cryptographic key through a high speed random number generator and generate a high speed symmetric cryptographic key through the high speed symmetric cryptographic key. Generate a fast asymmetric cryptographic key with a random random source,

The local quantum random number generator comprises a local random number generator and a local pseudo random number generator that generates the same pseudo random number as the NFC pseudo random number OTP data. The local quantum random number generator generates the same pseudo random number as the NFC pseudo random number OTP data. A quantum that generates a local symmetric encryption key and receives the image data captured by the surveillance camera, characterized by a local quantum random number generator for generating a local asymmetric encryption key to a random random source generated by the local random number source generator in the local symmetric encryption key Random password smartphone.

1: Doctor random number generator
2: quantum random number generator

Claims (1)

The cloud local server receives the image data captured by the surveillance camera and outputs the image data of the screen copied by the monitor screen capture through the output terminal;
When the communication modem inside the cloud local server sends the image data output through the output terminal to the smartphone,

The hybrid quantum random number generator in the cloud local server is composed of a hybrid random number generator and a hybrid pseudo random number generator that generates the same pseudo random number as the NFC pseudo random number OTP data.The hybrid symmetry is a random random source generated through the hybrid random number source generator. A hybrid quantum random number generator generating an encryption key and generating a hybrid asymmetric encryption key from the hybrid symmetric encryption key through a hybrid pseudo random number generator;
The cloud local server transmits the hybrid asymmetric encryption key generated by the hybrid quantum random number generator to the smartphone;
When NFC pseudo-random number OTP is tagged on the smartphone NFC chip, NFC pseudo-random number OTP data is transmitted to the smartphone to transmit the NFC pseudo-random OTP data encrypted with the hybrid asymmetric encryption key to the cloud local server;
The cloud local server decrypts the NFC pseudorandom OTP data encrypted with the hybrid asymmetric encryption key received from the smartphone with the hybrid symmetric encryption key, and the NFC pseudorandom OTP data of the hybrid pseudorandom number generator and the NFC pseudorandom OTP data tagged on the smartphone. If it matches,
A quantum random password smartphone receiving the image data captured by the surveillance camera, characterized in that the cloud local server transmits the image data to the smartphone.

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