KR20180136641A - How to certify the claude quantum security with transferring technology of one-side quantum random number codes - Google Patents

Abstract

The present invention provides a cloud quantum security authentication method using a unidirectional quantum random number encryption key transmission technique. A quantum server includes a high-speed quantum random number generator and a high-speed pseudo random number generator. The high-speed pseudo random number generator generates a high-speed symmetric encryption key by a pseudo random number program, and the high-speed quantum random number generator generates a high-speed asymmetric encryption key using a quantum random number in the high-speed symmetric encryption key. A cloud quantum random number generator includes 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 by a pseudo random number program, and the cloud quantum random number control unit generates a cloud asymmetric encryption key using a quantum random number in the cloud symmetric encryption key. A terminal quantum random number generator includes 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 by a pseudo random number program, and the terminal quantum random number control unit generates a terminal asymmetric encryption key using a quantum random number in the terminal symmetric encryption key.

Description

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a cloud quantum security authentication method using a unidirectional quantum random number encryption key transmission technique,

It is related to cloud systems with enhanced security through a compact portable quantum random number generator.

The cloud server including the high-speed quantum random number generator and the local server connected to the network include a low-rate quantum random number generator.

Particularly, a low power wide area network (LPWAN) terminal connected to a local server is a terminal connected to an LPWAN (Low Power Wide Area Network) network such as an NB-IoT and a LoRA and is a portable USB or embedded electronic circuit board And a quantum random number generator and a pseudo random number generator integrated on a printed circuit board (HDI PCB).

 It is a new technology that only the production system of the ultra-small size and the low price can be implemented although there is a distance from the patent registration requirement that the quantum random number generator technology can be applied to LPWAN (Low Power Wide Area Network) terminal.

Though miniaturization and low cost production are different from patented components, the use of the pattern generated by the diffraction grating as a part of random random number is an important part of actual technology development implementation.

Using a technology called UNB (Ultra Narrow Band), Siggox connects a chipset-based communication modem to various objects without a separate base station or transponder. It can send and receive only necessary data at close range, And power consumption is minimized. Urban areas can be transported up to 3km-10km, suburban areas can be transported up to 30-50km, and if visibility is secured, 1,000km is possible. In order to be able to utilize without paying the frequency allocation fee, it is possible to freely provide services by utilizing the 'license-free frequency band' left by the government. Mobile networks, such as general cellular and Wi-Fi, are optimized for general users to make phone calls or support multimedia content consumption, but for the Internet to be a reality, a dedicated network is needed for low-powered computer-powered objects in small batteries. Sigfox is aiming for a service that can accommodate many devices at low cost and low cost. Sigfox uses unlicensed frequency bands and is able to use up to 140 messages a day for up to 12 bytes of messages. They also offer a fare between $ 1 and $ 12 per device per year.

Among the requirements of network sensors for Internet (IoT) implementation, maintaining battery for a long time and expanding wireless coverage has become a central issue. IoT operators are faced with the challenge of building a simple yet solid infrastructure with limited resources, which requires a solution that allows for easy design, rapid product launch, good interoperability and nationwide deployment while minimizing total cost.

Competing with UNW in the Low Power Wide Area Network (LPWAN), LoRA LPWAN has a battery life of more than 10 years in a range of 10 miles (16.093 kilometers) or more (suburban) (Machine-to-Machine) wireless communications and connect millions of wireless sensor nodes to the gateway. It can easily connect with the Laura Alliance infrastructure along with the existing infrastructure, including public LAN operated by private LAN and telecommunication operators, and it is a technology that can construct Low Power Wide Area Network (LPWAN) nationwide. LoRA technology has been described as a way to address the long dilemma of having to choose one between broader coverage and lower power consumption, enabling higher scalability and cost-effectiveness for embedded applications compared to 3G and 4G cellular networks . By using LoRA technology, it is possible to maximize both, reduce additional repeater costs, operate reliably in harsh outdoor environments, and is well suited for a wide range of low-speed wireless monitoring and control designs.

By definition,

This technology, also known as M2M (Machine To Machine), can be thought of as bringing a transportation card when driving on a bus or subway. This is because the traffic card and the quantum terminal communicate with each other to exchange information and make payment.

This technology, called IoT (Internet of Things), is a physical network in which objects equipped with sensors and communication chips can automatically transmit and receive real-time data without human intervention. Objects In the Internet environment, devices (objects) with sensors or communication functions can be connected to the Internet to collect information around them, exchange information with other devices, and make appropriate decisions. Even if a person does not manipulate or instruct each other, the machine takes care of things. It is a huge ecosystem of wired and wireless networking objects based on attached sensors and chips. Objects The Internet is based on Bluetooth, Near Field Communication (NFC), sensor data, and networks.

Wi-Fi originated in the name of the Wireless Fidelity Alliance, and its official name is Wireless Local Area Network (WLAN).

MAC address is a 48-bit hardware address of a network card used by the MAC layer of the data link layer, and is the same as an Ethernet address or a token ring address.

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

An IP address is an IP address, which is a 32-bit address assigned to a physical network address in order to efficiently route on the Internet. An IP address allows you to identify the network on which the host is located, as well as identify the only host on the network. IP addresses are divided into classes and all hosts on the same network share the same prefix.

The present invention relates to an LPWAN (Low Power Wide Area Network) having a communication radius larger than that of a short distance.

5G mobile communication refers to a mobile communication technology capable of gigabit wireless Internet that is at least 13 times (1Gbps) and up to 1,300 times (100Gbps) faster than LTE (75Mbps), which is a 4G mobile communication. In mobile phones, G stands for 'generation', which means generation. So, 5G mobile communication means 5th generation mobile communication. Generations are based on when technologies are dramatically different. Generally, generations are classified according to how much technology has been developed to transfer large amounts of data at a high speed.

Long Term Evolution (LTE) is a wireless technology designed to increase the capacity and speed of mobile phone networks. It is a wireless technology that supports LTE-A, broadband LTE, LTE-R, narrowband LTE, LTE- (Heterogeneous), and LTE-U (unlicensed).

In particular, narrowband LTE is slower due to its narrow bandwidth due to LTE-MTC (MarrowBand-LTE-Machine) and narrower NB-LTE-M (Narrowband-LTE-Machine) LTE, and NB-IoT pilot service of ultra-low-bandwidth ultra-low-power data.

LTE-M is a mobile communication standard series that can communicate with the narrowband IoT in the permitted frequency band. LTE-M is an international standardization organization.

Internet of Thing, a system for sharing information in daily life through wired / wireless networks, is becoming popular. The object Internet is a object space network that forms intelligent relationships such as sensing, networking, and information processing in cooperation with human, objects, and services.

The security threats are also increasing due to the generalization of the Internet. In order to secure the Internet security of things, it is necessary to secure all sections from the Internet device to the system without interruption. Especially because they have to communicate with devices with various functions and protocols, they are exposed to security threats because they have to use open standard technology.

On the other hand, the software-based random number generation technique has a problem in that it can use a lot of resources and can grasp a random number generation pattern by using an advanced hacking technique.

Therefore, in order to secure the security between the Internet devices of the objects, a natural random number or a genuine random number that extracts a random number from the randomness of a natural phenomenon is requested. Although it has no specific pattern and can not be predicted, it is large and very expensive, There is a problem that is difficult to apply to a device.

IP Security Protocol (IPSec) is a protocol developed for security in the packet processing layer of network communication. It is used to protect data transmitted and received through a VPN (Virtual Private Network) from public network users Lt; / RTI >

A terminal-based IPSec VPN service is a virtual private network service in which various communication terminals can connect to a VPN terminal connected to a public network and connect to a remote private network to exchange VPN traffic without setting up a separate VPN. In order to use the virtual private network service, the VPN terminal performs an authentication step for creating a VPN gateway (VPN GW) and an IPSec tunnel through a public network. In IPSec, a key exchange IKE method is divided into 1 step (Main Mode or Aggressive Mode) and 2 step (Quick Mode). The first stage of the IKE is an ISAKMP (Internet Security Association and Key Management Protocol) step for exchanging encrypted data in a public network without security. The VPN terminal and the VPN G / W are pre-shared Shared key (Pre-Shared Key), ISAKMP encryption method, and hash function. The second step is to negotiate the encryption method of data to be exchanged through the actual IPSec tunnel and the type of traffic to be exchanged through the IPSec tunnel.

Such terminal-based IPsec VPN services can be divided into a wired base and a wireless base. In the wired base, the above-mentioned VPN terminal accesses the VPN G / W via the wired network, and the wireless base accesses the VPN G / W via the wireless network. will be. In a wired VPN service, a fixed IP address is assigned to a VPN terminal for IKE 1-step authentication between a VPN terminal and a virtual private network gateway (VPN G / W), and a VPN terminal and a virtual private network gateway (VPN G / W) Shared key, and then determines whether or not the IP address of the VPN terminal having the corresponding pre-shared key in the virtual private network gateway (VPN G / W) is the fixedly assigned IP address Authentication is performed in such a way as to confirm. In this case, the actual user terminal located under the VPN terminal of the subscriber can access the private network at the remote site through the VPN terminal without any additional authentication procedure.

 As the use of wired and wireless communication including the Internet is rapidly expanding, the security problems of the communication network are becoming more and more important in terms of protection of important confidentiality in the state, enterprise, and finance and personal privacy protection. The asymmetric public key cryptosystem, which was developed in the 1970s and 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 the information using the secret key. It is based on mathematical "computational complexity".

The RSA public-key cryptosystem developed by three people, Rivest, Shamir, and Adleman, for example, takes advantage of the fact that it is very difficult to decompose very large numbers into small numbers. In mathematical terms, the problem of factoring in small numbers increases exponentially with computation time as the size of the problem increases. Thus, if the sender and the receiver use a sufficiently large number of factorization problems as their public key, It will be impossible. However, the cryptosystem based on this mathematical computational complexity has been questioned about the safety of more sophisticated algorithms, and Peter Shor of AT & T in 1994 developed quantum computer decomposition algorithms using quantum computers. The RSA cryptosystem is found to be fundamentally decryptable.

Quantum cryptography technology, 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, the quantum cryptography communication technology is a technique for distributing cryptographic keys (disposable random numbers) absolutely securely in real time between a sender and a receiver on the basis of a quantum physics law such as " ) ".

The first quantum cryptography protocol was IBM's C.H. Bennett and G. Brassard of the University of Montreal.

Named after the designers, this protocol, named 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 technique is described in " Quantum cryptography communication technology ", Electronic Communications Trend Analysis Vol. 20, No. 5, Oct. 2005.

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

However, according to the above prior art, there is a limitation in that a transmission / reception device for communication between the quantum terminal and the server is required for transmitting / receiving the quantum cipher, and the cost for the transmission / reception device between the communication quantum terminal and the server is increased.

The present invention has a differentiation from a technique for distributing a quantum key, which is not a problem to be solved.

The quantum key, which is not securely distributing the quantum key in the on-line state, is already installed in hardware and is not limited to the technique of distributing the quantum key on the online network.

Particularly, the portable terminal (smartphone) is different from the prior art for the secure distribution of the quantum key in a state in which the quantum key has already been distributed to users (police and business smart phones) authenticated in the form of a dongle.

The key method in which data is transmitted only in one direction after generating a one-time quantum random number OTP (One Time Password) is the world's first technology.

It is possible to transmit data only in one direction, not in a bidirectional communication or a log-in manner by sharing a key.

The generation of a key also generates a unidirectional transmission authentication key in one time through a quantum random number generator through real time 3CH or more real time authentication of a global positioning system (GPS) time zone.

The network should be designed to separate the Internet from the Internet when building a computer network to communicate work security data (Reflecting the basic design according to Article 40 (NIS) Article 40 (Business Network Security Management)

(2.2.8) "," Service provider (development, maintenance, etc.) to access the Internet. "(2)" Information security management " (2.2.9) "Do you perform security measures on your computer?

Evaluation of security level of e-government public service (Subject: Security Administration) Main issue is network security measures satisfying "Is subcontractor business network separated from internet network (15.6)".

A pseudorandom number generator generates an asymmetric cryptographic key by combining the pseudo random number generated by the program with the fast symmetric cryptographic key to generate a fast quantum random number using a random random number source generated through a quantum random number generator, .

An asymmetric cryptographic key encrypted with a pseudo random number generated by a pseudo random number generator program is decrypted through a fast symmetric cryptographic key to generate data Can be restored.

A symmetric cryptographic key made of a quantum random number and an asymmetric cryptographic key made by a symmetric cryptographic key as a program (pseudo random number) can decrypt an asymmetric cryptographic key with a pair of symmetric cryptographic keys.

The present invention aims at quantum data communication (fast tunneling data communication, log-in data communication) by combining a quantum random number generator and a pseudo random number generator.

A quantum terminal is 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 in the external network, and a hybrid quantum terminal that is constructed as a backup network at the same time as an internal network and an external network. It is a cloud control system that builds a self-controlled wireless self-organizing network by separating / combining network and external network and applying the technology of quantum random number generator.

 We create a safe urban environment through hacking by clone phone, loss of smartphone, high security physical user authentication, and establishment of location management system through quantum random number.

Unlike conventional authentication authorities used for authentication for more than one year, the key method in which data is transmitted only in one direction by combining a quantum random number and a pseudorandom number key with a one-time quantum random number OTP (One Time Password) It is the world's first technology.

Cloud server, VPN, and portable terminal (smart phone), the MAC address of the modem chip is registered in the repeater and the generation of the secret cryptographic key by the Quantum Random Number Generator (QRNG), the NFC-OTP (One Time Password) And enhances security through a public cryptographic key by a pseudo random number generator (PRNG).

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

The method of transmitting data through the HDMI output terminal of the monitor is a method in which forging of the data can not be forged. In the worst case, the monitor screen image can be hacked by the hacking. However, And transmits the CCTV shot image to the smartphone.

Figure 1: Cornu's spiral pattern generated through a diffraction grating
Figures 2 and 3: USB pseudo-random number generator, quantum random number generator understanding
4 to 7: Block diagram for understanding of the present invention
8 to 9: A simplified diagram for understanding the present invention

The quantum random number generator comprises a random number source generator and a pseudo random number generator.

A random number generator generates cryptographic keys with random random sources originating from unpredictable natural phenomena.

As the unpredictable natural phenomenon, a quantum random number (QRN) using natural light, an LED (light emitting diode), an LD (laser diode), or the like is generated.

 And generates a symmetric cryptographic key for mutual cryptographic communication using the cryptographic key with a pair of cryptographic keys.

Unlike the above quantum random numbers, an asymmetric cryptographic key is encrypted and generated through a pseudorandom number generator (PRNG).

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

And generating an asymmetric cryptographic key that is re-encrypted through the pseudo-random number generator to the quantum random symmetric cryptographic key so that the asymmetric cryptographic key can be decrypted through the symmetric cryptographic key.

A low power wide area network (LPWAN) quantum terminal is composed of a modem chip, an MCU, a power amplifier, and the low-speed terminal quantum random number generator.

Wherein the low-rate terminal quantum random number generator comprises a low-rate terminal random number generator and a low-rate terminal pseudo random number generator to generate a terminal symmetric cryptographic key with a random random number source generated through a low- And generates a terminal asymmetric cryptographic key by means of a terminal pseudo random number generator.

The Micro Control Unit (MCU) amplifies the terminal asymmetric cipher key and MAC address data generated by the low-speed terminal quantum random number generator in Power Amp and transmits the IP (Internet Protocol) address of the LPWAN repeater through the modem chip , The LPWAN repeater transmits to the integrated control server through the LPWAN control server.

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

A high-speed quantum random number generator within a municipal security platform comprises a high-speed random number source generator and a fast pseudorandom number generator.

Generating a fast symmetric cryptographic key with a random random number source generated through the fast random number source generator and encrypting the fast asymmetric cryptographic key with the fast symmetric cryptographic key using a fast pseudorandom number generator to generate a fast symmetric cryptographic key and a fast asymmetric cryptographic key, To the cloud server.

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

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

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

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

When data is transmitted from the quantum terminal to the LPWAN cloud server in one direction, the data is encrypted with a high-speed symmetric encryption key, and when data is transmitted from the LPWAN cloud server to the quantum terminal in one direction, high-speed tunneling data communication is performed .

When the fast tunneling data communication is interrupted, the terminal symmetric cryptographic key, the fast symmetric cryptographic key, the terminal asymmetric cryptographic key, and the fast asymmetric cryptographic key generated by the quantum random number generator are consumed, but the fast tunneling data communication is interrupted and generated by the quantum random number generator The high speed symmetric cipher key, the terminal asymmetric cipher key, and the high speed asymmetric cipher 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 cryptographic key with a random random number source generated via a low- Generates a local asymmetric cryptographic key through a low-rate local pseudo-random number generator in the cryptographic key.

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

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

The cloud local server sends a local symmetric encryption key encrypted with a high-speed asymmetric encryption key to the LPWAN cloud server, and the LPWAN cloud server transmits a fast symmetric encryption key and a terminal symmetric encryption key encrypted with the local asymmetric encryption key to the cloud local server.

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

When the LPWAN cloud server transmits a local symmetric cryptographic key encrypted with the high-speed asymmetric cryptographic key to the quantum terminal, the quantum terminal decrypts the local symmetric cryptographic key encrypted with the high-speed asymmetric cryptographic key.

The LPWAN cloud server, the cloud local server, and the quantum terminal mutually share a fast symmetric encryption key, a local symmetric encryption key, and a terminal symmetric encryption key to perform 3-channel fast tunneling data communication.

Upon completion of the 3-channel fast tunneling communication, the fast symmetric cipher key, the local symmetric cipher key, the terminal symmetric cipher key, the fast asymmetric cipher key, the local asymmetric cipher key and the terminal asymmetric cipher key are all extinguished.

Monitor image of cloud server can be hacked by hacker, but it is possible to hack the video data of screen copied through monitor screen capture. However, Output terminal and the communication modem transmits the image data output through the HDMI output terminal to the ISP company control server.

For server hacking and virus infection, there is data input and output, but it is possible to hack the transmitted video because the user monitor image itself to be transmitted is transmitted through the HDMI video output terminal instead of bi-directional communication of data , Server hacking and virus infection becomes physically impossible.

A hybrid pseudo-random number generator that is the same as the NFC pseudo-random number OTP data and an NFC pseudo random number OTP that stores the NFC pseudo random number OTP data are a pair of pseudo-random number generators that generate the same random number (a pair of pseudo-random number generators .)

However, the hybrid pseudo random number generator that is the same as the NFC pseudo random number OTP data outputs a one-time OTP random number under the control of the quantum random number generator, and when the NFC pseudo random number OTP storing the NFC pseudo random number OTP data is tagged on the NFC chip of the smartphone, Outputs the ringing OTP random number to the smartphone.

The Hybrid Quantum Random Number Generator in the ISP service control server includes a hybrid random number source generator and a hybrid pseudo random number generator that is the same as Near Field Communication (NFC) pseudorandom OTP (One Time Password) data, Generating a hybrid symmetric cryptographic key with a random random number source and generating a hybrid asymmetric cryptographic key via a hybrid pseudorandom number generator that is the same as the NFC pseudo random number OTP data in the hybrid symmetric cryptographic key.

The ISP provider control server generates a hybrid symmetric cryptographic key through a hybrid quantum random number generator, and then generates a hybrid asymmetric cryptographic key through a hybrid pseudo random number generator that is the same as the NFC pseudo random number OTP data in the hybrid symmetric cryptographic key, and transmits the hybrid asymmetric cryptographic key to the smartphone.

When the NFC pseudo random number OTP storing the same NFC pseudo random number OTP data as the hybrid pseudo random number generator is tagged on the smartphone NFC chip, the NFC pseudo random number OTP data is transmitted to the smart phone and the NFC pseudo random number OTP data encrypted with the hybrid asymmetric cryptographic key To the ISP operator control server.

When the ISP operator control server decrypts the data encrypted with the hybrid asymmetric cryptographic key received from the smart phone with the hybrid symmetric cryptographic key and matches the NFC pseudo random number OTP data of the hybrid pseudo random number generator, The method of authentication of the cloud using the unidirectional quantum random number cryptographic key transmission technique is characterized in that the key is transmitted to the mobile phone.

In one embodiment,

The cloud server includes a cloud pseudo random number generator, a cloud quantum random number generator, and a cloud OTP memory storing a first symmetric encryption key. The quantum terminal includes a terminal OTP memory storing a first symmetric encryption key, a terminal quantum random number generator, A security authentication switch, and a quantum random number control unit;

The quantum random number generator includes a random number source generator configured to include a random number source generator, a quantum detection diode, a quantum random pulse generator, and a quantum random number controller to emit quantum particles, a quantum detection diode to detect quantum particles generated from the random number source generator, A quantum random pulse generator and a quantum random number controller for detecting a quantum particle event from the quantum detection diode and generating a random pulse corresponding to the detection of the quantum particle are constituted by a microprocessor;

A quantum random number generator for generating a quantum random number from a random random number source generated through the quantum random pulse generator to generate a cryptographic key, the quantum random number generator being distinguished by a cloud quantum random number generator and a terminal quantum random number generator;

The pseudo-random number generator generates a pseudo-random number by a program and generates a cryptographic key. The pseudo random number generator is distinguished by a cloud pseudo random number generator and a terminal pseudo random number generator,

When the cloud server transmits the first symmetric encryption key stored in the cloud OTP memory to the quantum random number controller in the quantum terminal, the quantum terminal compares the initial symmetric encryption key of the terminal OTP memory, -in) Login step to connect network

Generating a first terminal symmetric cryptographic key through a terminal quantum random number generator in a quantum terminal in a first log-in network connection state, and generating a first terminal symmetric cryptographic key using a pseudo random number to the first terminal symmetric cryptographic key, A quantum random number control unit for generating an asymmetric cryptographic key for the terminal and transmitting the primary terminal symmetric cryptographic key and the primary terminal asymmetric cryptographic key to the quantum random number controller;

The quantum random number control unit may transmit the first terminal symmetric encryption key and the first terminal asymmetric encryption key to the terminal OTP memory and transmit the first terminal asymmetric encryption key to the cloud server;

The cloud server storing the first terminal asymmetric cryptographic key in the cloud OTP memory;

Generating a first cloud symmetric encryption key through a cloud quantum random number generator in a cloud server and generating a first cloud asymmetric encryption key through a pseudo random number in the first cloud symmetric encryption key, A cryptographic key transfer step of transferring the primary cloud asymmetric cryptographic key to the quantum random number control unit after storing the cryptographic key and the primary cloud asymmetric cryptographic key in the cloud OTP memory;

A decryption step of decrypting data transmitted from the cloud server to the quantum terminal using a primary terminal symmetric encryption key when the data is transmitted through the primary terminal asymmetric cryptographic key;

The data transmission from the quantum terminal to the cloud server includes a communication step of performing data communication by decrypting data with a primary cloud symmetric encryption key when the primary cloud asymmetric encryption key is transmitted;

A deletion step of deleting the initial symmetric encryption key in the terminal OTP memory upon the first logout;

When the cloud server and the quantum terminal reconnect to each other, the cloud server transmits the primary terminal asymmetric cryptographic key to the quantum terminal, the quantum random number control unit decrypts the primary terminal with the symmetric cryptographic key, and the primary cloud asymmetric cryptography Key is generated and decrypted with a primary cloud symmetric encryption key, and the secondary key is log-in through mutual authentication, thereby generating and deleting a cryptographic key each time it is reconnected. Authentication method.

In one embodiment,

A terminal pseudo random number generator in a quantum terminal and a cloud pseudo random number generator in a cloud server are a terminal pseudo random number generator and a cloud pseudo random number generator which are composed of a microprocessor and generate the same pseudo random number by a program input pseudo random number program;

The terminal quantum random number generator includes a terminal random number source generator configured to comprise a terminal random number source generator, a terminal quantum detection diode, a terminal quantum random pulse generator, and a terminal quantum random number control unit,

A terminal quantum detection diode for detecting quantum particles generated from the terminal random number source generator;

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;

Wherein the terminal quantum random number control unit comprises a microprocessor and is a terminal quantum random number controller for generating a first terminal quantum random number from a random random number source generated through the terminal quantum random pulse generator;

The quantum terminal comprises a terminal pseudo random number generator, a terminal quantum random number generator, an OTP memory, a security authentication switch, and a quantum random number controller. When the cloud server accesses the quantum terminal,

The terminal pseudo random number generator generates a pseudo random number by a program to generate a first symmetric cryptographic key and transmits the first symmetric cryptographic key to the terminal quantum random number controller of the terminal quantum random number generator;

The terminal quantum random number control unit receives the primary symmetric cryptographic key, generates a primary terminal asymmetric cryptographic key through the primary terminal quantum random number, and transmits the generated primary terminal asymmetric cryptographic key to the quantum random number control unit;

The quantum random number control unit may include a transmitting step of storing the first symmetric encryption key and the first terminal asymmetric encryption key in the OTP memory and transmitting the first terminal asymmetric encryption key to the cloud server;

The cloud pseudo random number generator in the cloud server generates a pseudo random number by a program and generates a first symmetric cryptographic key through a pseudo random number generated by the same program as the terminal pseudo random number generator and encrypts it with the first terminal asymmetric cryptographic key A cryptographic key transmission step of generating a car cloud symmetric cryptographic key and transmitting it to a quantum random number control unit in 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 when the primary symmetric encryption key matches, A login step to connect the network;

The terminal quantum random number control unit in the terminal quantum random number generator includes a second terminal quantum random number generation step of generating a second terminal quantum random number with a random random number source generated through a terminal quantum random pulse generator;

Wherein the terminal pseudo random number generator generates a pseudorandom number by a program to generate a second symmetric cryptographic key and transmits the second symmetric cryptographic key to the terminal quantum random number controller of the terminal quantum random number generator;

The terminal quantum random number control unit receives the secondary symmetric cryptographic key, generates a secondary terminal asymmetric cryptographic key through the secondary terminal quantum random number, and transmits the asymmetric cryptographic key to the quantum random number controller;

Wherein the quantum random number control unit comprises: a cloud server transmission step of storing the quadratic symmetric encryption key in the OTP memory and transmitting the asymmetric encryption key of the secondary terminal to the cloud server;

Wherein the quantum random number control unit blocks the network through the security authentication switch when the primary symmetric encryption key and the primary terminal asymmetric encryption key of the OTP memory are deleted and log out,

The quantum random number control unit receives the secondary terminal asymmetric cryptographic key transmitted when the cloud server is reconnected and decrypts it with the quadratic symmetric cryptographic key of the OTP memory to connect the log-in network through the security authentication switch This is a cloud quantum security authentication method using unidirectional quantum random number cryptographic key transmission technology.

In one embodiment,

When data is transmitted from the quantum terminal to the LPWAN cloud server in one direction, the data is encrypted with a fast symmetric encryption key (fast asymmetric encryption key) and transferred to the quantum terminal in the LPWAN cloud server. And transmits it.

In addition, when data is transmitted from the quantum terminal to the cloud server in one direction, the data is encrypted with a fast symmetric encryption key (fast asymmetric encryption key) and transferred to the quantum terminal in one direction from the cloud server. And transmits it.

In addition, when data is transmitted from the cloud local server to the cloud server in one direction, the data is encrypted with a fast symmetric encryption key (fast asymmetric encryption key) and transmitted from the cloud server to the cloud local server unidirectionally. ).

In one embodiment,

A high-speed quantum random number generator in a municipal security platform includes a high-speed random-number source generator and a high-speed pseudo-random number generator. The high-speed random number generator generates a fast symmetric encryption key using a random random- And a first-order high-speed asymmetric cryptographic key that is generated by encrypting the fast asymmetric cryptographic key through the fast pseudorandom number generator to the fast symmetric cryptographic key is transmitted to the LPWAN cloud server.

The LPWAN cloud server transmits a high-speed asymmetric cryptographic key to the MAC address of the quantum terminal Modem chip.

The quantum terminal is composed of Modem Chip, MCU, Power Amp, and Sensor. The MCU receives the first high speed asymmetric encryption key through the Modem Chip, encrypts the sensor data collected by the Sensor with the first high speed asymmetric encryption key, Amplified by the power amplifier, and transmitted to the LPWAN cloud server through the modem chip.

The LPWAN cloud server stores sensor decryption data obtained by decrypting the sensor encryption data encrypted with the first-order high-speed asymmetric encryption key with the first-order fast symmetric encryption key.

When a cloud local server accesses the LPWAN cloud server with a user ID (IDentification), a high-speed quantum random number generator generates a second high-speed symmetric encryption key and a second high-speed asymmetric encryption key, Speed asymmetric cryptographic key to the cloud local server of the server.

When the cloud local server transmits the encryption ID encrypted with the second high speed asymmetric encryption key to the LPWAN cloud server through the VPN, the LPWAN cloud server decrypts the encrypted ID with the second high speed symmetric encryption key, and if the user is a legitimate user registered with the user ID, Way tunneling data communication between the cloud server and the cloud local server and transmits the decrypted sensor decoded data to the first-order fast symmetric encryption key.

It is possible to hack the image data of the screen copied through the monitor screen capture on the monitor screen of the cloud local server in which the sensor decoded data is displayed by the hacker but to output the image data through the HDMI output terminal which can not hack the data of the cloud local server And the communication modem transmits the image data output through the HDMI output terminal to the ISP carrier control server.

The Hybrid Quantum Random Number Generator in the ISP carrier control server comprises 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 encryption key with a random random number source generated by the hybrid random number source generator And a hybrid quantum random number generator for generating a hybrid asymmetric cryptographic key through a hybrid pseudorandom number generator that is the same as the NFC pseudo random number OTP data in the hybrid symmetric cryptographic key.

The ISP provider control server generates a hybrid symmetric cryptographic key through a hybrid quantum random number generator, and then generates a hybrid asymmetric cryptographic key through a hybrid pseudo random number generator that is the same as the NFC pseudo random number OTP data in the hybrid symmetric cryptographic key, and transmits the hybrid asymmetric cryptographic key to the smartphone.

When the NFC pseudo random number OTP storing the same NFC pseudo random number OTP data as the hybrid pseudo random number generator is tagged on the smartphone NFC chip, the NFC pseudo random number OTP data is transmitted to the smart phone and the data encrypted with the hybrid asymmetric cryptographic key is transmitted to the ISP carrier control server Lt; / RTI >

When the ISP operator control server decrypts the data encrypted with the hybrid asymmetric cryptographic key received from the smart phone with the hybrid symmetric cryptographic key and matches the NFC pseudo random number OTP data of the hybrid pseudo random number generator, The method of authentication of the cloud using the unidirectional quantum random number cryptographic key transmission technique is characterized in that the key is transmitted to the mobile phone.

A high-speed quantum random number generator in a municipal security platform includes a high-speed random number source generator and a fast pseudorandom number generator to generate a fast symmetric cryptographic key with a random random number source generated through a fast random number source generator, Speed asymmetric cryptographic key by encrypting and generating a fast asymmetric cryptographic key through a fast pseudo random number generator and transmitting the fast symmetric cryptographic key and the fast asymmetric cryptographic key to the LPWAN cloud server.

The LPWAN cloud server transmits a high-speed asymmetric cryptographic key to the MAC address of the quantum terminal Modem chip.

The quantum terminal is composed of Modem Chip, MCU, Power Amp, and Sensor. The MCU receives the high speed asymmetric encryption key through the modem chip and encrypts the sensor data collected by the sensor with the high speed asymmetric encryption key. And transmits it to the LPWAN cloud server through the LPWAN repeater through the modem chip.

The LPWAN cloud server stores sensor decryption data obtained by decrypting the sensor encryption data encrypted with the high-speed asymmetric encryption key using a fast symmetric encryption key.

When a cloud-local server is connected to the LPWAN cloud server, a high-speed quantum random number generator generates a fast symmetric encryption key and a high-speed asymmetric encryption key to provide a high-speed asymmetric encryption key to the cloud local server send.

The cloud local server encrypts the user ID with a high-speed asymmetric encryption key, and transmits it to the LPWAN cloud server through the VPN. The cloud local server decrypts it with a high-speed asymmetric encryption key. If the user ID is a registered user, the LPWAN cloud server and the cloud- Directional tunneling data communication between the server and the sensor decrypted data decrypted with the fast symmetric encryption key.

The local quantum random number generator comprises a local random number source generator and a local pseudo random number generator identical to the NFC pseudo random number OTP data to generate a local symmetric cryptographic key with a random random number source generated via a local random number source generator, Is a local quantum random number generator that generates a local asymmetric cryptographic key through the same local pseudo-random number generator as the NFC pseudo-random OTP data.

The cloud local server sends the local asymmetric cryptographic key generated by the local quantum random number generator to the smartphone.

Tagging the NFC pseudo random number OTP to the smartphone NFC chip transmits the NFC pseudo random number OTP data to the smart phone and transmits the NFC pseudo random number OTP data encrypted with the local asymmetric encryption key to the cloud local server.

The cloud local server decrypts the NFC pseudo-random OTP data encrypted with the local asymmetric encryption key with a local symmetric encryption key, and when the NFC pseudo random number OTP data of the local pseudo random number generator matches the NFC pseudo random number OTP data tagged with the smartphone, And transmits the sensor decrypted data of the server to the smartphone. The method of the cloud quantum security authentication using the unidirectional quantum random number cryptographic key transmission technology.

In one embodiment,

A fast quantum random number generator in a secure platform comprises a fast random number source generator and a fast pseudo random number generator to generate a fast symmetric encryption key with a random random number source generated through a fast random number source generator, And a fast asymmetric cryptographic key is encrypted and generated through a random number generator to transmit a fast symmetric cryptographic key and a fast asymmetric cryptographic key to the cloud server.

The cloud server sends a high-speed asymmetric cryptographic key to the MAC address of the quantum terminal Modem chip.

The quantum terminal is composed of Modem Chip, MCU, and Power Amp. The MCU receives the high speed asymmetric cryptographic key through the modem chip, amplifies the quantum terminal ID data encrypted with the high speed asymmetric cryptographic key in Power Amp, To the cloud server.

In the cloud server, when the quantum terminal ID data obtained by decoding the quantum terminal ID data encrypted with the high-speed asymmetric cryptographic key is encrypted with the high-speed symmetric cryptographic key, if the user matches the MAC address of the quantum terminal modem chip, -in) < / RTI > bi-directional tunneling data communication.

When a cloud server is connected to the cloud server, a fast symmetric encryption key and a fast asymmetric encryption key are generated through a high-speed quantum random number generator to transmit a high-speed asymmetric encryption key to the cloud local server.

The cloud local server encrypts the cloud local server ID data with the high-speed asymmetric encryption key. When the encrypted cloud local server ID data is transmitted to the cloud server, the cloud server decrypts it with the high-speed symmetric encryption key. If the cloud local server ID data is the registered user, Enables user-login (log-in) bi-directional tunneling data communication between the server and the cloud local server.

The local quantum random number generator comprises a local random number source generator and a local pseudo random number generator identical to the NFC pseudo random number OTP data to generate a local symmetric cryptographic key with a random random number source generated via a local random number source generator, Is a local quantum random number generator that generates a local asymmetric cryptographic key through the same local pseudo-random number generator as the NFC pseudo-random OTP data.

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

Tagging the NFC pseudo random number OTP to the portable terminal NFC chip transmits the NFC pseudo random number OTP data to the portable terminal and transmits the NFC pseudo random number OTP data encrypted with the local asymmetric cryptographic key to the cloud local server.

The cloud local server decrypts the NFC pseudo random number OTP data encrypted with the local asymmetric encryption key with the local symmetric encryption key, and when the NFC pseudo random number OTP data of the local pseudo random number generator matches the tagged NFC pseudo random number OTP data with the portable terminal, And transmits the data of the local server to the portable terminal. The method of the cloud quantum security authentication using the unidirectional quantum random number cryptographic key transmission technology.

In one embodiment,

A high-speed quantum random number generator in a municipal security platform includes a high-speed random number source generator and a fast pseudorandom number generator to generate a fast symmetric cryptographic key with a random random number source generated through a fast random number source generator, Speed asymmetric cryptographic key by encrypting and generating a fast asymmetric cryptographic key through a fast pseudo random number generator and transmitting the fast symmetric cryptographic key and the fast asymmetric cryptographic key to the LPWAN cloud server.

The LPWAN cloud server transmits a high-speed asymmetric cryptographic key to the MAC address of the quantum terminal Modem chip.

The quantum terminal is composed of Modem Chip, MCU, Power Amp, and Sensor. The MCU receives the high speed asymmetric encryption key through the modem chip and encrypts the sensor data collected by the sensor with the high speed asymmetric encryption key. And transmits it to the LPWAN cloud server through the LPWAN repeater through the modem chip.

The LPWAN cloud server stores sensor data, which is decrypted by a high-speed asymmetric cryptographic key, with the high-speed symmetric cryptographic key.

When a cloud-local server is connected to the LPWAN cloud server, a high-speed quantum random number generator generates a fast symmetric encryption key and a high-speed asymmetric encryption key to provide a high-speed asymmetric encryption key to the cloud local server send.

The cloud local server encrypts the user ID with a high-speed asymmetric encryption key, and transmits the encrypted ID to the LPWAN cloud server through the VPN. When the LPWAN cloud server decrypts the encrypted ID with the fast symmetric encryption key, the LPWAN cloud server and the cloud local Way tunneling data communication between the server and the server and transmits the decrypted sensor data to the high-speed symmetric encryption key.

The local quantum random number generator comprises a local random number source generator and a local pseudo random number generator identical to the NFC pseudo random number OTP data to generate a local symmetric cryptographic key with a random random number source generated via a local random number source generator, Is a local quantum random number generator that generates a local asymmetric cryptographic key through the same local pseudo-random number generator as the NFC pseudo-random OTP data.

The cloud local server sends the local asymmetric cryptographic key generated by the local quantum random number generator to the smartphone.

 Tagging the NFC pseudo random number OTP storing the NFC pseudo random number OTP data to the smartphone NFC chip transmits the stored NFC pseudo random number OTP data to the smartphone and encrypts the NFC pseudo random number OTP data with the local asymmetric encryption key to transmit to the cloud local server do.

The cloud local server decrypts the NFC pseudo-random OTP data encrypted with the local asymmetric encryption key with a local symmetric encryption key, and when the NFC pseudo random number OTP data of the local pseudo random number generator matches the NFC pseudo random number OTP data tagged with the smartphone, And transmits the decrypted sensor data of the server to the smartphone. The method of the cloud quantum security authentication using the unidirectional quantum random number encryption key transmission technique.

In one embodiment,

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

A 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 radioactive isotope.

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

Referring to FIG. 1, the light has a dual property (wave property, particle property). In the present invention, the interference of light generated through a diffraction grating such as a single slit or a double slit ) Pattern and a quantum detection diode that detects a random photon based on the particle property is processed as an electric signal to generate quantum random numbers.

The quantum random pulse generator is a quantum random pulse generator for detecting a quantum particle event from the quantum detection diode and generating a random pulse corresponding to the detection of quantum particles.

The quantum random number controller is a quantum random number controller composed of a microprocessor for generating a quantum random number from a random random number source generated through the quantum random pulse generator.

2, the input / output unit includes a power port, an input data port, an output data port, and a ground port. The protruding input / output unit, which is coupled to the recessed input / output unit of the pseudo random number generator 1, Random number generator (2) having a structure sealed with a housing coupled to a recessed input / output part of a pseudo random number generator.

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

In order to make a primary quantum random number generated through a quantum random number generator to be commercialized on a network through a secondary pseudorandom number generated by a pseudo random number generator, a pair of pseudo random number generators programmed with the same program, Randomly numbered generators are physically defective in the form of USB (Universal Serial Bus).

In addition, data can be communicated through an IO port by integrating it on an embedded PCB and a HDI PCB.

 The pseudo random number generator includes a protruding input / output unit including a power port, an input data port, an output data port, and a ground port, which are inserted into the concave input / output unit of the quantum terminal, and a protruding input / output unit including a protruding input / A pseudo-random number generator 1 including an integrated housing including a recessed input / output unit including a port, an input data port, an output data port, and a ground port, and a pseudo-random number control unit.

When the protruding input / output unit of the pseudo random number generator is inserted into the depressed input / output unit of the quantum terminal, power is supplied through the power port and the ground port to drive the pseudo-random number control unit.

The pseudo-random number control unit receives GPS time data from the quantum terminal through the input data port and the output data port, and generates a pseudo-random-number cryptographic key through the pseudo-random number in the 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 control unit is driven by receiving power supply through the power port and the ground port.

Wherein the quantum random number control unit generates a quantum random number cryptographic key (a 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 in a quantum random number generator, To the control unit.

Wherein the pseudo-random number control unit receives the quantum random number cryptographic key and generates an asymmetric cryptographic key encrypted through the pseudo-random number cryptographic key, wherein the quantum random number generator generates the asymmetric cryptographic key by using the same pair of pseudorandom number generators A pair of asymmetric cryptographic keys generated by a time-domain pseudorandom number generating program is generated by different quantum random numbers and can not be mutually bi-directionally decoded, but is transmitted in one direction The data can be decrypted with respect to either the reception or the transmission, and at this time, the decryption is possible by the quantum random number, so that a unique security system is constructed.

In one embodiment.

The quantum server is composed of a fast quantum random number generator and a fast pseudorandom number generator. The fast quantum random number generator generates a fast symmetric encryption key through quantum random numbers.

A fast pseudorandom number generator generates a high speed asymmetric cryptographic key through a pseudo random number program on a fast symmetric cryptographic key and generates a cloud cryptographic key that is encrypted by the cloud asymmetric cryptographic key received from the cloud server and transmits the generated cloud cryptographic key to the cloud server.

The fast pseudorandom number generator is a fast pseudorandom number generator that generates a terminal cryptographic key by encrypting a terminal asymmetric cryptographic key received from the quantum terminal through a fast asymmetric cryptographic key and transmits the generated cryptographic key to the quantum terminal.

The cloud quantum random number generator in the cloud server includes a cloud quantum random number generator, a cloud random number generator, and a cloud random number generator. The cloud quantum random number generator is a random random number generator generated by the cloud random number generator, Key and generating a first cloud asymmetric cryptographic key by encrypting the first cloud symmetric cryptographic key with a cloud pseudo random number generator to generate a cloud quantum random number generator.

Wherein the terminal quantum random number generator comprises a terminal quantum random number controller, a terminal random number source generator, and a terminal pseudo random number generator, wherein the terminal quantum random number controller is a random random number source generated through a terminal random number source generator, And generates a first terminal asymmetric cryptographic key by encrypting the first terminal symmetric cryptographic key with a terminal pseudo random number generator.

The cloud server transmits the first cloud asymmetric cryptographic key to the quantum server via the network.

The fast quantum random number generator and the fast pseudorandom number generator in the quantum server generate a first fast symmetric cryptographic key and a first fast asymmetric cryptographic key and transmit the first cloud asymmetric cryptographic key received from the cloud server through the first fast asymmetric cryptographic key And transmits the generated cloud cryptographic key to the cloud server.

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

The fast quantum random number generator and the fast pseudorandom number generator in the quantum server generate a second fast symmetric cryptographic key and a second fast asymmetric cryptographic key and generate a first terminal asymmetric cryptographic 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 the second cloud symmetric cryptographic key and the second cloud asymmetric cryptographic key through the cloud quantum random number generator and then transmits the second cloud asymmetric cryptographic key to the quantum terminal, The quantum terminal encrypts and retransmits the terminal cryptographic key with the second cloud asymmetric cryptographic key.

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

The quantum server transmits to the cloud server a first terminal asymmetric cryptographic key decrypting the terminal cryptographic key encrypted with the second fast asymmetric cryptographic key through the second fast symmetric cryptographic key.

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

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

The quantum server transmits to the quantum terminal a first cloud asymmetric cryptographic key decrypting the cloud cryptographic key encrypted with the first high-speed asymmetric cryptographic key through the first fast symmetric cryptographic key.

The data transmission from the cloud server to the quantum terminal is performed with the first terminal asymmetric cryptographic key and decrypted with the first terminal symmetric cryptographic key.

A method for authenticating a cloud using a unidirectional quantum random number cryptographic key transmission technique characterized by data communication in which data transmission from a quantum terminal to a cloud server is performed with a first cloud asymmetric cryptographic key and decryption is performed with a first cloud symmetric cryptographic key.

In one embodiment,

The cloud quantum random number generator in the cloud server consists 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 pseudo random number generator.

A cloud quantum detection diode for detecting quantum particles generated from the cloud random number source generator and a random pulse generator for detecting a quantum particle event from the cloud quantum detection diode, A cloud quantum random number generator for generating a cloud quantum random number generator and a cloud quantum random number generator for generating a cloud quantum random number generator for generating a quantum random number from a random number 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 a cloud pseudo random number generator composed of a microprocessor.

The cloud pseudorandom number generator encrypts and generates a cloud asymmetric cryptographic key using a cloud symmetric cryptographic key. The cloud pseudorandom cryptographic key sequentially generates a cloud symmetric cryptographic key and a cloud asymmetric cryptographic key (a first cloud symmetric cryptographic key and a first cloud asymmetric cryptographic key, A cloud symmetric cryptographic key, a second cloud asymmetric cryptosystem, a third cloud symmetric cryptographic key, and a third cloud asymmetric cryptosystem).

The terminal quantum random number generator in the CCTV surveillance camera includes 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 terminal random number generator for emitting quantum particles, a terminal quantum detecting diode for detecting quantum particles generated from the terminal random number source generator, and a random pulse detecting unit for detecting a quantum particle event from the terminal quantum detecting diode, A terminal quantum random pulse generator for generating

The terminal quantum random number control unit comprises a microprocessor and is a terminal quantum random number controller for generating a quantum random number from a random random number source generated through the terminal quantum random pulse generator to generate a terminal symmetric cryptographic key.

The terminal quantum random number controller transmits the terminal symmetric cryptographic key to a terminal pseudo-random number generator comprising a microprocessor.

Wherein the terminal pseudorandom number generator encrypts and generates a terminal asymmetric cryptographic key using a terminal symmetric cryptographic key and sequentially generates a terminal symmetric cryptographic key and a terminal asymmetric cryptographic key using a first terminal symmetric cryptographic key and a first terminal asymmetric cryptographic key, A terminal symmetric cryptographic key, a second terminal asymmetric cryptosystem, a third terminal symmetric cryptographic key, and a third terminal asymmetric cryptosystem.

In one embodiment.

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

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

A fast pseudorandom number generator is a fast pseudorandom number generator that generates a fast asymmetric cryptographic key through a pseudorandom program on a fast symmetric cryptographic key.

Wherein the cloud server comprises a cloud quantum random number generator and a cloud pseudorandom number generator, wherein the cloud quantum random number generator in the cloud server generates a first cloud symmetric encryption key with a random random number source and a cloud pseudorandom number generator with the first cloud symmetric encryption key, And the first cloud asymmetric encryption key is encrypted and generated.

Wherein the local server comprises a terminal quantum random number generator and a terminal pseudo-random number generator, wherein the terminal quantum random number generator in the local server generates a first terminal symmetric cryptographic key with a random random number source, And a local server for encrypting and generating the first terminal asymmetric cryptographic key through a random number generator.

The cloud server transmits the first cloud asymmetric cryptographic key to the quantum server via the network.

The fast quantum random number generator and the fast pseudorandom number generator in the quantum server generate a first fast symmetric cryptographic key and a first fast asymmetric cryptographic key and transmit the first cloud asymmetric cryptographic key received from the cloud server through the first fast asymmetric cryptographic key And transmits the generated cloud cryptographic key to the cloud server.

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

The fast quantum random number generator and the fast pseudorandom number generator in the quantum server generate the second fast symmetric cryptographic key and the second fast asymmetric cryptographic key and transmit the first terminal asymmetric cryptographic key And transmits the terminal encryption key 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 via the cloud quantum random number generator and then transmits the second cloud asymmetric encryption key to the local server , And the local server encrypts and retransmits the terminal cryptographic key with the second cloud asymmetric cryptographic key.

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

The quantum server transmits to the cloud server a first terminal asymmetric cryptographic key decrypting the terminal cryptographic key encrypted with the second fast asymmetric cryptographic key through the second fast symmetric cryptographic 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, Encrypts the encryption key and retransmits it.

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

The quantum server transmits a first cloud asymmetric cryptographic key decrypting the cloud cryptographic key encrypted with the first high-speed asymmetric cryptographic key to the local server through the first fast symmetric cryptographic key.

When data is transmitted from the cloud server to the local server using the first terminal asymmetric cryptographic key, the data is decrypted with the terminal first symmetric cryptographic key.

When data is transmitted from the local server to the cloud server through the first cloud asymmetric encryption key, the data is log-in through data communication using the first cloud symmetric encryption key.

A second fast asymmetric cryptographic key, a first terminal asymmetric cryptographic key, a first terminal symmetric cryptographic key, a first terminal symmetric cryptographic key, a first fast symmetric cryptographic key, Wherein the second terminal asymmetric cryptographic key, the second terminal symmetric cryptographic key, the first cryptographic asymmetric cryptographic key, the first cryptographic symmetric cryptographic key, the second cryptographic asymmetric cryptographic key and the second cryptographic symmetric cryptographic key are destroyed. This is a cloud quantum security authentication method using random number encryption key transmission technology.

In one embodiment.

A high-speed quantum random number generator in a quantum server is composed of a high-speed random number source generator, a high-speed quantum detection diode, a high-speed quantum random pulse generator, a high-speed quantum random number controller, and a high-speed pseudo random number generator.

A high-speed quantum detection diode for detecting quantum particles generated from the high-speed random number source generator; and a random pulse generator for detecting a quantum particle event from the high-speed quantum detection diode to detect a quantum particle, A high-speed quantum random pulse generator and a fast quantum random number generator for generating a fast quantum random number by generating a fast quantum random number with a random random number source generated through the fast quantum random pulse generator, Lt; / RTI >

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

The fast pseudorandom number generator generates a fast asymmetric cryptographic key through a fast symmetric cryptographic key and generates a cloud cryptographic key that is encrypted by the cloud asymmetric cryptographic key received from the cloud server and transmits the generated cloud cryptographic key to the cloud server.

The fast pseudorandom number generator is a fast pseudorandom number generator that generates a fast asymmetric cryptographic key using a fast symmetric cryptographic key and generates a terminal cryptographic key that is encrypted by the terminal asymmetric cryptographic key received from the quantum terminal and transmits the generated cryptographic key to the quantum terminal.

The cloud quantum random number generator in the cloud server includes a cloud random number source generator which is composed of a cloud random number source generator, a cloud quantum detection diode, a cloud quantum random number generator, a cloud quantum random number generator, and a cloud pseudo random number generator, A cloud quantum detection diode for detecting quantum particles generated from a random number source generator and a cloud quantum random pulse generator for detecting a quantum particle event from the cloud quantum detection diode to generate a random pulse corresponding to the detection of quantum particles, The control unit includes a microprocessor, and is a cloud quantum random number controller for generating a random number from a random random number source generated through the cloud quantum random pulse generator to generate a cloud symmetric encryption key.

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

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

The terminal quantum random number generator in the quantum terminal comprises a terminal random number source generator, a terminal quantum detection diode, a terminal quantum random number generator, a terminal quantum random number controller, and a terminal pseudo random number generator, A terminal quantum detection diode for detecting quantum particles generated from a random number source generator and a terminal quantum random pulse generator for detecting a quantum particle event from the terminal quantum detection diode to generate a random pulse corresponding to the detection of quantum particles, The control unit comprises a microprocessor and is a terminal quantum random number controller for generating a quantum random number from a random random number source generated through the terminal quantum random pulse generator to generate a terminal symmetric cryptographic key.

The terminal quantum random number controller transmits the terminal symmetric cryptographic key to a terminal pseudo-random number generator comprising a microprocessor.

The terminal pseudo-random number generator is a terminal quantum random number generator for encrypting and generating a terminal asymmetric cryptographic key using a terminal symmetric cryptographic key.

The cloud server transmits the first cloud asymmetric cryptographic key to the quantum server via the network.

The high speed pseudorandom number generator in the quantum server generates a cloud cryptographic key by encrypting the first cloud asymmetric cryptographic key received from the cloud server through the high speed asymmetric cryptographic key and transmits the generated cloud cryptographic key to the cloud server.

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

The fast pseudorandom number generator in the quantum server generates a terminal cryptographic key by encrypting the first terminal asymmetric cryptographic key received from the quantum terminal through the fast asymmetric cryptographic key and transmits the terminal cryptographic key to the quantum terminal.

In the data communication between the cloud server and the quantum terminal, when the cloud server generates the second cloud asymmetric cryptographic key through the cloud quantum random number generator and transmits the second cloud asymmetric cryptographic key to the quantum terminal, the quantum terminal encrypts the terminal cryptographic key with the second cloud asymmetric cryptographic 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 cryptographic key decrypting the terminal cryptographic key encrypted with the high-speed asymmetric cryptographic key to the cloud server through the fast symmetric cryptographic key.

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

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

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

The data transmission from the cloud server to the quantum terminal is carried out with the first terminal asymmetric cryptographic key authenticated through the quantum server, and the quantum terminal decodes the data with the first terminal symmetric cryptographic key.

The data transmission from the quantum terminal to the cloud server is performed using the first cloud asymmetric cryptographic key authenticated through the quantum server, and the cloud server decrypts the data with the first cloud symmetric cryptographic key. Cloud is a quantum security authentication method.

In one embodiment.

Wherein the quantum server comprises a fast quantum random number generator and a fast pseudorandom number generator, wherein the fast quantum random number generator generates a fast symmetric encryption key via a quantum random number, and the fast pseudorandom number generator generates a fast Generates an asymmetric cryptographic key.

The cloud server comprises a cloud quantum random number generator and a cloud pseudorandom number generator, wherein the cloud quantum random number generator generates a cloud symmetric encryption key with a random random number source and encrypts the cloud asymmetric encryption key with the cloud symmetric encryption key via the cloud pseudorandom number generator. It is a cloud quantum random number generator to generate.

The local server includes a terminal quantum random number generator and a terminal pseudo-random number generator. The local server generates a terminal symmetric cryptographic key through a terminal quantum random number generator, and encrypts the terminal asymmetric cryptographic key with the terminal symmetric cryptographic key Is a terminal quantum random number generator.

The cloud server transmits the cloud asymmetric cryptographic key to the quantum server via the network.

A high-speed pseudorandom number generator in the quantum server generates a cloud cryptographic key that is encrypted with the cloud asymmetric cryptographic key received from the cloud server through a high-speed asymmetric cryptographic key and transmits the generated cloud cryptographic key to the cloud server.

The local server transmits the terminal asymmetric cryptographic key to the quantum server via the network.

The fast pseudorandom number generator in the quantum server generates a terminal cryptographic key by encrypting the terminal asymmetric cryptographic key received from the local server through the high speed asymmetric cryptographic key and transmits the terminal cryptographic key to the local server.

In the 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 and retransmits the terminal encryption key with the cloud asymmetric encryption key.

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 cryptographic key obtained by decoding the terminal cryptographic key encrypted with the high-speed asymmetric cryptographic key to the cloud server through the fast symmetric cryptographic key.

When the local server sends the terminal asymmetric cryptographic key to the cloud server, the cloud server encrypts and retransmits the cloud cryptographic key with the terminal asymmetric cryptographic key.

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

The quantum server transmits a cloud asymmetric cryptographic key decrypting the cloud cryptographic key encrypted with the high-speed asymmetric cryptographic key to the local server through the fast symmetric cryptographic key.

Data transmission from the cloud server to the local server is performed using a terminal asymmetric cryptographic key, and decrypted with a terminal symmetric cryptographic key.

The data transfer from the local server to the cloud server is performed through data communication decrypted with the cloud symmetric cryptographic key, and when the logout is performed, the terminal asymmetric cryptographic key and the cloud asymmetric cryptographic key are destroyed. This is a cloud quantum security authentication method using cryptographic key transmission technology.

In one embodiment,

A fast quantum random number generator in a secure platform comprises a fast random number source generator and a fast pseudo random number generator to generate a fast symmetric encryption key with a random random number source generated through a fast random number source generator, And a fast asymmetric cryptographic key is encrypted and generated through a random number generator to transmit a fast symmetric cryptographic key and a fast asymmetric cryptographic key to the cloud server.

The cloud server sends a high-speed asymmetric cryptographic key to the MAC address of the quantum terminal Modem chip.

The quantum terminal is composed of a Modem chip, an MCU, and a Power Amp. The MCU receives a high-speed asymmetric cryptographic key through a modem chip, and quantum terminal ID data obtained by encrypting the quantum terminal ID data with a high-speed asymmetric cryptographic key is amplified And transmits it to the cloud server through the modem chip.

In the cloud server, when the quantum terminal ID data obtained by decoding the quantum terminal ID data encrypted with the high-speed asymmetric cryptographic key is encrypted with the high-speed symmetric cryptographic key, if the user matches the MAC address of the quantum terminal modem chip, -in) < / RTI > bi-directional tunneling data communication.

When a cloud server is connected to the cloud server, a fast symmetric encryption key and a fast asymmetric encryption key are generated through a high-speed quantum random number generator to transmit a high-speed asymmetric encryption key to the cloud local server.

The cloud local server encrypts the cloud local server ID data with a high-speed asymmetric encryption key. When the cloud server sends the local server ID data to the cloud server, the cloud server decrypts it with a fast symmetric encryption key so that the cloud local server ID Way tunneling data communication between the cloud server and the cloud local server is opened and the quantum terminal ID data and the cloud local server ID data are the user registration ID data between the cloud terminal and the cloud local server, And a multi-channel tunneling data communication for opening a user-log-in bi-directional tunneling data communication is opened. The present invention relates to a cloud quantum security authentication method using a unidirectional quantum random number encryption key transmission technique.

In one embodiment,

When a cloud server is connected to a cloud server, a high-speed quantum random number generator generates a fast symmetric encryption key and a fast asymmetric encryption key to send a high-speed asymmetric encryption key to the cloud local server. The cloud local server uses a high- Encryption Cloud Encrypted with ID Data When the local server ID data is transmitted to the cloud server, the cloud server decrypts it with a fast symmetric encryption key, and when the cloud local server ID data is registered in the cloud local server, And a user-login (Log-in) bi-directional tunneling data communication is opened.

In one embodiment,

When a cloud server is connected to a cloud server, a high-speed quantum random number generator generates a fast symmetric cryptographic key and a fast asymmetric cryptographic key to transmit a high-speed asymmetric cryptographic key to the cloud local server. The cloud local server uses a high- If the encrypted quantum terminal ID data encrypted with the data is transmitted to the cloud server, the cloud server decrypts it with the fast symmetric encryption key, and if the user of the cloud local server is registered with the quantum terminal ID data, Log-in bi-directional tunneling data communication is opened by using a unidirectional quantum random number cryptographic key transmission technique.

In one embodiment.

The quantum terminal is a local server, a cloud terminal, a cloud server, a surveillance camera, an automatic controller, a broadcasting device, a solar photovoltaic board, an inverter, a fuel cell controller, an automation control server, an automatic control device control server, a water meter, (Low power wide area network), water level sensor, flow sensor, gas sensor, fire detection sensor, courier vehicle, golf cart, public bicycle, health car, security light, street light, leak sensor, bus guide terminal, The present invention is directed to a cloud quantum security authentication method using a unidirectional quantum random number cryptographic key transmission technique.

In one embodiment.

The quantum terminal may be an LTE (Long Term Evolution), a LoRA, a NB-IoT, a Sigfox, an Ultra Narrow Band Wide Area Network (UNBWAN), a LoRA Wide Area Network (LoRAWAN), a WeightlessWAN or a Long Term Evolution Wide Area Network The present invention is a cloud quantum security authentication method using a unidirectional quantum random number cryptographic key transmission technique characterized by being a quantum terminal using any one or more of communication methods such as a low power wide area network.

In one embodiment.

Data transmission from a cloud server to a quantum terminal decrypts it with a local symmetric cryptographic key. When data from a quantum terminal to a cloud server is transmitted with a cloud asymmetric cryptographic key, data is decrypted with a cloud symmetric cryptographic key. The local asymmetric cryptographic key, the local symmetric cryptographic key, the cloud asymmetric cryptographic key, and the cloud symmetric cryptographic key are deleted when the user logs in the server and the quantum terminal by user authentication and performs data communication and logs out The present invention relates to a cloud quantum security authentication method using a unidirectional quantum random number cryptographic key transmission technology.

In one embodiment.

Wherein the quantum random number generator and the pseudo random number generator are integrated on an embedded electronic circuit board or a high density printed circuit board (HDI PCB) to perform data communication through an IO port. Security authentication method.

In one embodiment.

The ISP provider control server further generates a hybrid symmetric cryptographic key through the hybrid quantum random number generator and then transmits the hybrid asymmetric cryptographic key to the hybrid symmetric cryptographic key through the same hybrid pseudorandom number generator as the NFC pseudo random number OTP data, Tagging the NFC pseudo-random number OTP storing the same NFC pseudo-random number OTP data as the hybrid pseudo random number generator to the smart phone NFC chip to transmit the NFC pseudo random number OTP data to the smartphone, And transmits the NFC pseudo random number OTP data encrypted with the key to the ISP server control server. The ISP provider control server decrypts the data encrypted with the hybrid asymmetric cryptographic key transmitted from the smart phone with the hybrid symmetric cryptographic key, OTP Day And if they match, the cloud both security authentication method using a one-way quantum random number encryption key transfer technique, characterized in that the ISP provider control server sent to the smart phone data.

In one embodiment.

The low-rate terminal quantum random number generator includes a low-rate terminal random number generator and a low-rate terminal pseudo-random number generator, and generates a terminal symmetric cryptographic key through a low-rate terminal pseudo-random number generator, Wherein the fast quantum random number generator comprises a fast random number generator and a fast pseudo random number generator to encrypt the terminal asymmetric cryptographic key with a random random number source generated, And a fast quantum random number generator for encrypting the fast asymmetric cryptographic key with a random random number source generated through a fast random number source generator in the fast symmetric cryptographic key, wherein the low speed local quantum random number generator comprises a low speed local random number source generator, Generator to generate a local low-rate pseudo-random number generator < RTI ID = 0.0 > And a low-speed local quantum random number generator for generating a symmetric cryptographic key and generating a local asymmetric cryptographic key through a random random number source generated through a low-speed local random number source generator in the local symmetric cryptographic key. This is a cloud-based quantitative security authentication method.

In one embodiment.

The high-speed quantum random number generator in the security platform includes a high-speed random number source generator and a fast pseudo random number generator to generate a fast symmetric encryption key through a fast pseudorandom number generator and to generate a fast symmetric encryption key Wherein the local quantum random number generator comprises a local random number source generator and a local pseudo random number generator identical to the NFC pseudo random number OTP data to generate a high speed asymmetric cryptographic key with a random pseudo random number generator, And a local quantum random number generator for generating a local symmetric cryptographic key from the random random number source generated by the local random number source generator to the local symmetric cryptographic key using the unidirectional quantum random number generator Cloud is a quantum security authentication method.

In one embodiment.

The pseudo-random number generator includes a microprocessor and generates a pseudo-random number by a random number generating program. The pseudo-random number generator generates a symmetric cryptographic key through a pseudo random number generated by the pseudo-random number controller, And transmits it to the random number control unit.

The quantum random number generator includes a quantum detection diode which is composed of a random number source generator, a quantum detection diode, a quantum random pulse generator, and a quantum random number control unit and detects quantum particles generated from a random number source generator emitting quantum particles, A quantum random pulse generator for detecting a quantum particle event to generate a random pulse corresponding to the detection of quantum particles, and a microprocessor for generating a quantum random number from a random random number source generated through the quantum random pulse generator.

The quantum random number controller receives the symmetric cryptographic key from the pseudo random number generator and generates an asymmetric cryptographic key through the quantum random number. The method of the cloud quantum security authentication using the unidirectional quantum random number cryptographic key transmission technique.

In one embodiment.

A fast pseudo random number generator generates a fast symmetric encryption key through a pseudo-random number program.

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

The cloud quantum random number generator consists of a cloud quantum random number control 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.

The cloud quantum random number control unit generates a cloud asymmetric cryptographic key through quantum random numbers in the cloud symmetric cryptographic key.

The terminal quantum random number generator includes a terminal quantum random number controller and a terminal pseudo random number generator, and the terminal pseudo random number generator generates a terminal symmetric cryptographic key through a pseudo random number program.

The terminal quantum random number control unit generates a terminal asymmetric cryptographic key through a quantum random number in the terminal symmetric cryptographic key, and is a cloud quantum security authentication method using a unidirectional quantum random number cryptographic key transmission technique.

1: Pseudo-random number generator
2: Quantum random number generator

Claims (30)

The low-rate terminal quantum random number generator includes a low-rate terminal random number generator and a low-rate terminal pseudo random number generator. The low-rate terminal random number generator generates a terminal symmetric cryptographic key with a random random number source generated through a low- A terminal encryption key generation step of encrypting and generating a terminal asymmetric encryption key through a pseudo random number generator;
Wherein the quantum terminal comprises a Modem Chip, an MCU, a Power Amp, and the low-rate terminal quantum random number generator, wherein the MCU comprises a terminal asymmetric cryptographic key and a Media Access Control Address ) Data is amplified by the Power Amp and transmitted to the IP (Internet Protocol) address of the LPWAN repeater through the modem chip, the LPWAN repeater transmits to the integrated control server through the LPWAN control server;
The integrated control server transmitting the terminal asymmetric cryptographic key and MAC address data to a LPWAN cloud server;
A high-speed quantum random number generator in a municipal security platform includes a high-speed random number source generator and a fast pseudorandom number generator to generate a fast symmetric cryptographic key with a random random number source generated through a fast random number source generator, A fast cryptographic key transmission step of transmitting a fast symmetric cryptographic key and a fast asymmetric cryptographic key to the LPWAN cloud server by encrypting and generating a fast asymmetric cryptographic key through a fast pseudo random number generator;
The LPWAN cloud server encrypts a high-speed asymmetric cryptographic key with the terminal asymmetric cryptographic key to the MAC address of the quantum terminal modem chip, and the quantum terminal decrypts the fast asymmetric cryptographic key encrypted with the terminal asymmetric cryptographic key using the terminal symmetric cryptographic key, The LPWAN cloud server decrypts the terminal symmetric encryption key with the fast symmetric encryption key. The LPWAN cloud server encrypts the terminal symmetric encryption key using the terminal asymmetric encryption key, and the LPWAN cloud server decrypts the terminal symmetric encryption key using the asymmetric encryption key. The quantum terminal decrypts the fast symmetric cryptographic key using the terminal symmetric cryptographic key;
A fast tunneling data communication step of encrypting data using a high-speed symmetric encryption key when the data is transmitted to the LPWAN cloud server in the unidirectional terminal and encrypting the encrypted data with the terminal symmetric encryption key when the data is transmitted from the LPWAN cloud server to the unidirectional quantum terminal;
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 cryptographic key with a random random number source generated via a low- A local encryption key generation step of generating a local asymmetric encryption key through a low speed local pseudo random number generator in an encryption key;
The cloud local server sends a local asymmetric encryption key to the LPWAN cloud server, and the LPWAN cloud server sends a fast asymmetric encryption key encrypted with the local asymmetric encryption key to the cloud local server. The cloud local server encrypts the asymmetric secret key with the local asymmetric encryption key. Key as a local symmetric encryption key, the cloud local server sends a local symmetric encryption key encrypted with a fast asymmetric encryption key to the LPWAN cloud server, and the LPWAN cloud server encrypts the fast symmetric encryption key with a local asymmetric encryption key And the terminal symmetric cipher key is transmitted to the cloud local server. The cloud local server decrypts the fast symmetric cipher key and the terminal symmetric cipher key with the local symmetric cipher key, and the LPWAN cloud server transmits the local symmetric cipher key encrypted with the terminal asymmetric cipher key When transmitting to the terminal, the quantum terminal transmits the terminal symmetric encryption key A local encryption key decryption step of decrypting the local symmetric encryption key encrypted with the terminal asymmetric encryption key;
The LPWAN cloud server, the cloud local server, and the quantum terminal mutually share a fast symmetric encryption key, a local symmetric encryption key, and a terminal symmetric encryption key to perform three-channel fast tunneling data communication, A 3-channel fast tunneling data communication step in which both the symmetric cryptographic key, the local symmetric cryptographic key, the terminal symmetric cryptographic key, the fast asymmetric cryptographic key, the local asymmetric cryptographic key and the terminal asymmetric cryptographic key are all expunged;

It is possible to hack the video data of the screen copied by the screen capture of the monitor screen of the cloud local server by the hacker. However, the output and communication through the HDMI output terminal which can not hack the data of the cloud local server, And transmitting the image data to the ISP server;

The Hybrid Quantum Random Number Generator in the ISP carrier control server comprises 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 encryption key with a random random number source generated by the hybrid random number source generator And a hybrid cryptographic key generation step of generating a hybrid asymmetric cryptographic key through a hybrid pseudorandom number generator that is the same as the NFC pseudo random number OTP data in the hybrid symmetric cryptographic key;
The ISP service control server generates a hybrid symmetric cryptographic key through a hybrid quantum random number generator, generates a hybrid asymmetric cryptographic key through a hybrid pseudorandom number generator that is the same as the NFC pseudo random number OTP data in the hybrid symmetric cryptographic key, Transmitting step;
When the NFC pseudo random number OTP storing the same NFC pseudo random number OTP data as the hybrid pseudo random number generator is tagged on the smartphone NFC chip, the NFC pseudo random number OTP data is transmitted to the smart phone and the NFC pseudo random number OTP data encrypted with the hybrid asymmetric cryptographic key An ISP provider control server transmission step of transmitting the service provider control server to the ISP operator control server;
When the ISP operator control server decrypts the data encrypted with the hybrid asymmetric cryptographic key received from the smart phone with the hybrid symmetric cryptographic key and matches the NFC pseudo random number OTP data of the hybrid pseudo random number generator, The method of claim 1, further comprising the steps of:
The low-rate terminal quantum random number generator includes a low-rate terminal random number generator and a low-rate terminal pseudo random number generator. The low-rate terminal random number generator generates a terminal symmetric cryptographic key with a random random number source generated through a low- A terminal encryption key generation step of encrypting and generating a terminal asymmetric encryption key through a pseudo random number generator;
The quantum terminal comprises a Modem Chip, an MCU, a Power Amp, and the low-speed terminal quantum random number generator. The MCU amplifies the terminal asymmetric cryptographic key and MAC address data generated by the low- To the integrated control server;
Wherein the integrated control server comprises: a cloud server transmitting step of transmitting the terminal asymmetric cryptographic key and MAC address data to a cloud server;
A fast quantum random number generator in a secure platform comprises a fast random number source generator and a fast pseudo random number generator to generate a fast symmetric encryption key with a random random number source generated through a fast random number source generator, A cryptographic key transmission step of transmitting a fast symmetric cryptographic key and a fast asymmetric cryptographic key to the cloud server by encrypting and generating a fast asymmetric cryptographic key through a random number generator;
The cloud server encrypts the high-speed asymmetric cryptographic key with the terminal asymmetric cryptographic key to the MAC address of the quantum terminal Modem chip, and the quantum terminal decodes the fast asymmetric cryptographic key encrypted with the terminal asymmetric cryptographic key through the terminal symmetric cryptographic key, The cloud server decrypts the terminal symmetric cryptographic key with the fast symmetric cryptographic key, and the cloud server uses the fast symmetric cryptographic key encrypted with the terminal asymmetric cryptographic key to the quantum terminal When the data is transmitted from the quantum terminal to the cloud server in the unidirectional direction, the quantum terminal encrypts the data with the fast symmetric encryption key and transmits the encrypted data to the quantum terminal. Encrypted and transmitted with a symmetric encryption key Step tunneling data communications;
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 cryptographic key with a random random number source generated via a low- A local cryptographic key generation step of generating a local asymmetric cryptographic key through a low-rate local pseudo-random number generator in a cryptographic key;
The cloud local server sends a local asymmetric encryption key to the cloud server, and the cloud server sends a fast asymmetric encryption key encrypted with the local asymmetric encryption key to the cloud local server. The cloud local server encrypts the asymmetric encryption key with the local asymmetric encryption key. A local symmetric encryption key is decrypted with a local symmetric encryption key, a cloud local server transmits a local symmetric encryption key encrypted with a high-speed asymmetric encryption key to the cloud server, and the cloud server encrypts a fast symmetric encryption key with a local asymmetric encryption key, Key to the cloud local server, the cloud local server decrypts the fast symmetric encryption key and the terminal symmetric encryption key with the local symmetric encryption key, and the cloud server transmits the local symmetric encryption key encrypted with the terminal asymmetric encryption key to the quantum terminal, The quantum terminal transmits the terminal asymmetric cipher And the cloud server, the cloud local server, and the quantum terminal decode the local symmetric cipher key encrypted with the high-speed symmetric cipher key, the local symmetric cipher key, and the terminal symmetric cipher key, A tunneling data communication step;
It is possible to hack the video data of the screen copied by the screen capture of the monitor screen of the cloud local server by the hacker. However, the output and communication through the HDMI output terminal which can not hack the data of the cloud local server, And transmitting the image data to the ISP server;
The Hybrid Quantum Random Number Generator in the ISP carrier control server comprises 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 encryption key with a random random number source generated by the hybrid random number source generator And a hybrid cryptographic key generation step of generating a hybrid asymmetric cryptographic key through a hybrid pseudorandom number generator that is the same as the NFC pseudo random number OTP data in the hybrid symmetric cryptographic key;
The ISP service control server generates a hybrid symmetric cryptographic key through a hybrid quantum random number generator, generates a hybrid asymmetric cryptographic key through a hybrid pseudorandom number generator that is the same as the NFC pseudo random number OTP data in the hybrid symmetric cryptographic key, Transmitting step;
When the NFC pseudo random number OTP storing the same NFC pseudo random number OTP data as the hybrid pseudo random number generator is tagged on the smartphone NFC chip, the NFC pseudo random number OTP data is transmitted to the smart phone and the NFC pseudo random number OTP data encrypted with the hybrid asymmetric cryptographic key An ISP provider control server transmission step of transmitting the service provider control server to the ISP operator control server;
When the ISP operator control server decrypts the data encrypted with the hybrid asymmetric cryptographic key received from the smart phone with the hybrid symmetric cryptographic key and matches the NFC pseudo random number OTP data of the hybrid pseudo random number generator, The method of claim 1, further comprising the steps of:
The low-rate terminal quantum random number generator includes a low-rate terminal random number generator and a low-rate terminal pseudo random number generator. The low-rate terminal random number generator generates a terminal symmetric cryptographic key with a random random number source generated through a low- A terminal encryption key generation step of encrypting and generating a terminal asymmetric encryption key through a pseudo random number generator;
The quantum terminal comprises a Modem Chip, an MCU, a Power Amp, and the low-speed terminal quantum random number generator. The MCU amplifies the terminal asymmetric cryptographic key and MAC address data generated by the low- Transferring the control server through the integrated control server;
Wherein the integrated control server comprises: a cloud server transmitting step of transmitting the terminal asymmetric cryptographic key and MAC address data to a cloud server;
A fast quantum random number generator in a secure platform comprises a fast random number source generator and a fast pseudo random number generator to generate a fast symmetric encryption key with a random random number source generated through a fast random number source generator, A fast cryptographic key transmission step of encrypting and generating a fast asymmetric cryptographic key through a random number generator and transmitting the fast symmetric cryptographic key and the fast asymmetric cryptographic key to the cloud server;
The cloud server encrypts a high-speed asymmetric cryptographic key with the terminal asymmetric cryptographic key to the MAC address of the quantum terminal Modem chip, and the quantum terminal decrypts the fast asymmetric cryptographic key encrypted with the terminal asymmetric cryptographic key using the terminal symmetric cryptographic key, When the terminal transmits the terminal symmetric cipher key encrypted with the asymmetric cipher key to the cloud server, the cloud server decrypts the terminal symmetric cipher key with the fast symmetric cipher key, and the cloud server transmits the fast symmetric cipher key encrypted with the terminal asymmetric cipher key to the quantum terminal The quantum terminal decrypts the fast symmetric encryption key using the terminal symmetric encryption key;
A high-speed tunneling data communication step of encrypting and transmitting data with a high-speed symmetric encryption key when the data is transmitted from the quantum terminal to the cloud server in one direction, and encrypting the data with the terminal symmetric encryption key when transmitting data from the cloud server to the quantum one-
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 cryptographic key with a random random number source generated via a low- A local encryption key generation step of generating a local asymmetric encryption key through a low speed local pseudo random number generator in an encryption key;
The cloud local server sends a local asymmetric encryption key to the cloud server, and the cloud server sends a fast asymmetric encryption key encrypted with the local asymmetric encryption key to the cloud local server. The cloud local server encrypts the asymmetric encryption key with the local asymmetric encryption key. A local symmetric encryption key is decrypted with a local symmetric encryption key, a cloud local server transmits a local symmetric encryption key encrypted with a high-speed asymmetric encryption key to the cloud server, and the cloud server encrypts a fast symmetric encryption key with a local asymmetric encryption key, Key to the cloud local server, the cloud local server decrypts the fast symmetric encryption key and the terminal symmetric encryption key with the local symmetric encryption key, and the cloud server transmits the local symmetric encryption key encrypted with the terminal asymmetric encryption key to the quantum terminal, The quantum terminal transmits the terminal asymmetric cipher A local encryption key decoding step for decoding a local symmetric encryption key encrypted with;
A cloud server, a cloud local server, and a quantum terminal, a three-channel high-speed tunneling data communication step of performing three-channel high-speed tunneling data communication by mutually sharing a fast symmetric encryption key, a local symmetric encryption key and a terminal symmetric encryption key;
Wherein the fast symmetric cryptographic key, the local symmetric cryptographic key, the terminal symmetric cryptographic key, the fast asymmetric cryptographic key, the local asymmetric cryptographic key, and the terminal asymmetric cryptographic key are all extinguished at the end of the 3-channel fast tunneling data communication. Cloud Quantum Security Authentication Method Using Transport Technology.
The cloud server includes a cloud pseudo random number generator, a cloud quantum random number generator, and a cloud OTP memory storing a first symmetric encryption key. The quantum terminal includes a terminal OTP memory storing a first symmetric encryption key, a terminal quantum random number generator, A security authentication switch, and a quantum random number control unit;
The quantum random number generator includes a random number source generator configured to include a random number source generator, a quantum detection diode, a quantum random pulse generator, and a quantum random number controller to emit quantum particles, a quantum detection diode to detect quantum particles generated from the random number source generator, A quantum random pulse generator and a quantum random number controller for detecting a quantum particle event from the quantum detection diode and generating a random pulse corresponding to the detection of the quantum particle are constituted by a microprocessor;
A quantum random number generator for generating a quantum random number from a random random number source generated through the quantum random pulse generator to generate a cryptographic key, the quantum random number generator being distinguished by a cloud quantum random number generator and a terminal quantum random number generator;
The pseudo-random number generator generates a pseudo-random number by a program and generates a cryptographic key. The pseudo random number generator is distinguished by a cloud pseudo random number generator and a terminal pseudo random number generator,

When the cloud server transmits the first symmetric encryption key stored in the cloud OTP memory to the quantum random number controller in the quantum terminal, the quantum terminal compares the initial symmetric encryption key of the terminal OTP memory, -in) a login step for connecting a network;
Generating a first terminal symmetric cryptographic key through a terminal quantum random number generator in a quantum terminal in a first log-in network connection state, and generating a first terminal symmetric cryptographic key using a pseudo random number to the first terminal symmetric cryptographic key, A quantum random number control unit for generating an asymmetric cryptographic key for the terminal and transmitting the primary terminal symmetric cryptographic key and the primary terminal asymmetric cryptographic key to the quantum random number controller;
The quantum random number control unit may include: a cloud server transmitting step of storing the first terminal symmetric encryption key, the first terminal asymmetric encryption key in the terminal OTP memory, and then transmitting the first terminal asymmetric encryption key to the cloud server;
The cloud server storing the first terminal asymmetric cryptographic key in the cloud OTP memory;
Generating a first cloud symmetric encryption key through a cloud quantum random number generator in a cloud server and generating a first cloud asymmetric encryption key through a pseudo random number in the first cloud symmetric encryption key, A cryptographic key transfer step of transferring the primary cloud asymmetric cryptographic key to the quantum random number control unit after storing the cryptographic key and the primary cloud asymmetric cryptographic key in the cloud OTP memory;
A decryption step of decrypting data transmitted from the cloud server to the quantum terminal using a primary terminal symmetric encryption key when the data is transmitted through the primary terminal asymmetric cryptographic key;
The data transmission from the quantum terminal to the cloud server includes a communication step of performing data communication by decrypting data with a primary cloud symmetric encryption key when the primary cloud asymmetric encryption key is transmitted;
A deletion step of deleting the initial symmetric encryption key in the terminal OTP memory upon the first logout;
When the cloud server and the quantum terminal reconnect to each other, the cloud server transmits the primary terminal asymmetric cryptographic key to the quantum terminal, the quantum random number control unit decrypts the primary terminal with the symmetric cryptographic key, and the primary cloud asymmetric cryptography Key is generated and decrypted with a primary cloud symmetric encryption key, and the secondary key is log-in through mutual authentication, thereby generating and deleting a cryptographic key each time it is reconnected. Authentication method.
A fast quantum random number generator in a secure platform comprises a fast random number source generator and a fast pseudo random number generator to generate a fast symmetric encryption key with a random random number source generated through a fast random number source generator, A cloud server transmission step of encrypting and generating a high speed asymmetric encryption key through a random number generator to transmit a fast symmetric encryption key and a high speed asymmetric encryption key to the cloud server;
The cloud server transmits a high speed asymmetric cryptographic key to the MAC address of the quantum terminal Modem chip;
The quantum terminal is composed of a Modem chip, an MCU, and a Power Amp. The MCU receives a high-speed asymmetric cryptographic key through a modem chip, and quantum terminal ID data obtained by encrypting the quantum terminal ID data with a high-speed asymmetric cryptographic key is amplified To a cloud server via a modem chip;
In the cloud server, when the quantum terminal ID data obtained by decoding the quantum terminal ID data encrypted with the high-speed asymmetric cryptographic key is encrypted with the high-speed symmetric cryptographic key, if the user matches the MAC address of the quantum terminal modem chip, -in) a bi-directional tunneling data communication;
A cryptographic key transmission step of generating a fast symmetric encryption key and a fast asymmetric encryption key through a fast quantum random number generator and transmitting a fast asymmetric encryption key to a cloud local server when the cloud server is connected to the cloud server;
The cloud local server encrypts the cloud local server ID data with a high-speed asymmetric encryption key. When the cloud server sends the local server ID data to the cloud server, the cloud server decrypts it with a fast symmetric encryption key so that the cloud local server ID The method comprising the steps of: (a) initiating a user log-in bi-directional tunneling data communication between the cloud server and the cloud local server.
A terminal pseudo random number generator in a quantum terminal and a cloud pseudo random number generator in a cloud server are a terminal pseudo random number generator and a cloud pseudo random number generator which are composed of a microprocessor and generate the same pseudo random number by a program input pseudo random number program; The quantum terminal comprises a terminal pseudo random number generator, a terminal quantum random number generator, a security authentication switch, and a terminal OTP memory, and when the cloud server accesses the quantum terminal,

The terminal quantum random number generator includes a terminal random number source generator for generating a quantum particle, which 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, A terminal quantum random detector for detecting a quantum particle event from the terminal quantum detection diode and a terminal quantum random pulse generator for generating a random pulse corresponding to the detection of quantum particles from the terminal quantum detection diode, A quantum random number generation step of generating a terminal quantum random number with a random random number source generated through a quantum random pulse generator;
The terminal pseudo random number generator generates a pseudo random number by a program to generate a symmetric cryptographic key and transmits the symmetric cryptographic key to the terminal quantum random number controller of the terminal quantum random number generator; The terminal quantum random number control unit receives the symmetric encryption key, generates a terminal asymmetric cryptographic key through the terminal quantum random number, stores the symmetric cryptographic key and the terminal asymmetric cryptographic key in the terminal OTP memory, and then transmits the terminal asymmetric cryptographic key to the cloud server; The cloud pseudo random number generator in the cloud server generates a pseudorandom number by a program to generate a symmetric cryptographic key, generates a cloud symmetric cryptographic key that is encrypted with the terminal asymmetric cryptographic key, and transmits it to the terminal quantum random number control unit in the quantum terminal ;
The terminal quantum random number control unit decrypts the cloud symmetric cryptographic key received from the cloud server with the terminal asymmetric cryptographic key stored in the terminal OTP memory. If the symmetric cryptographic key is identical, the log-in network node And the network is shut off through a security authentication switch OFF contact when the terminal asymmetric cryptographic key of the connection and terminal OTP memory is deleted and the logout is performed. Authentication method.
The video data of the screen copied through the monitor screen capture of the monitor screen of the cloud local server is outputted through the output terminal, and when the communication modem transmits the video data output through the output terminal to the portable terminal,
The Hybrid Quantum Random Number Generator in the cloud local 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 number source generated via a hybrid random number source generator A cryptographic key generation step of generating a hybrid asymmetric cryptographic key through a hybrid pseudorandom number generator that is the same as the NFC pseudo random number OTP data in the hybrid symmetric cryptographic key;
The cloud local server generates a hybrid symmetric cryptographic key through a hybrid quantum random number generator and then generates a hybrid asymmetric cryptographic key through a hybrid pseudo random number generator that is the same as the NFC pseudo random number OTP data in the hybrid symmetric cryptographic key and transmits the cryptographic key transmission to the portable terminal step;
When the NFC pseudo random number OTP storing the same NFC pseudo random number OTP data as the hybrid pseudo random number generator is tagged on the portable terminal NFC chip, the NFC pseudo random number OTP data encrypted with the hybrid asymmetric cryptographic key is transmitted to the portable terminal. An OTP transmission step for transmitting to the cloud local server;
The cloud local server decrypts the data encrypted with the hybrid asymmetric cryptographic key received from the portable terminal with the hybrid symmetric cryptographic key and when the NFC pseudo random number OTP data of the hybrid pseudorandom number generator matches the NFC pseudorandom OTP data, the cloud local server transmits the image data to the portable terminal The method comprising the steps of: (a) transmitting the encrypted random number to the wireless terminal;
A high-speed quantum random number generator in a municipal security platform includes a high-speed random number source generator and a fast pseudorandom number generator to generate a fast symmetric cryptographic key with a random random number source generated through a fast random number source generator, A first fast cryptographic key transmission step of encrypting a fast asymmetric cryptographic key through a fast pseudo random number generator and transmitting the first fast symmetric cryptographic key and the first fast asymmetric cryptographic key to the LPWAN cloud server;
The LPWAN cloud server transmits the first-order asymmetric encryption key to the MAC address of the quantum terminal Modem chip; The quantum terminal is composed of Modem Chip, MCU, Power Amp, and Sensor. The MCU receives the first high speed asymmetric encryption key through the Modem Chip, encrypts the sensor data collected by the Sensor with the first high speed asymmetric encryption key, Amplified by Power Amp and transmitted to the LPWAN cloud server via Modem Chip; The LPWAN cloud server includes a primary data storage step of storing sensor decryption data obtained by decrypting the sensor encryption data encrypted with the first-order high-speed asymmetric encryption key with the first-order high-speed symmetric encryption key;

When a cloud local server is connected to the LPWAN cloud server, a high-speed quantum random number generator generates a second-order fast symmetric encryption key and a second-order high-speed asymmetric encryption key to form a cloud local server A second cryptographic key transmission step of transmitting the next-highest-asymmetric cryptographic key;
When the cloud local server transmits the encryption ID encrypted with the second high speed asymmetric encryption key to the LPWAN cloud server through the VPN, the LPWAN cloud server decrypts the encrypted ID with the second high speed symmetric encryption key, and if the user is a legitimate user registered with the user ID, A decoded data transmission step of transmitting bidirectional tunneling data communication between the cloud server and the cloud local server and sensor decoded data decoded by the first-order fast symmetric encryption key;

When the image data of the screen copied through the monitor screen capture is outputted through the HDMI output terminal on the monitor screen of the cloud local server in which the sensor decoded data is displayed, the communication modem transmits the image data to the ISP server Server transfer phase;

The Hybrid Quantum Random Number Generator in the ISP carrier control server comprises 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 encryption key with a random random number source generated by the hybrid random number source generator And a hybrid quantum random number generator for generating a hybrid asymmetric cryptographic key through a hybrid pseudorandom number generator that is the same as the NFC pseudo random number OTP data in the hybrid symmetric cryptographic key; The ISP service control server generates a hybrid symmetric cryptographic key through a hybrid quantum random number generator, generates a hybrid asymmetric cryptographic key through a hybrid pseudorandom number generator that is the same as the NFC pseudo random number OTP data in the hybrid symmetric cryptographic key, Transmitting step;
When the NFC pseudo random number OTP storing the same NFC pseudo random number OTP data as the hybrid pseudo random number generator is tagged on the smartphone NFC chip, the NFC pseudo random number OTP data is transmitted to the smart phone and the data encrypted with the hybrid asymmetric cryptographic key is transmitted to the ISP carrier control server A data transmission step of transmitting the encrypted data;
When the ISP operator control server decrypts the data encrypted with the hybrid asymmetric cryptographic key received from the smart phone with the hybrid symmetric cryptographic key and matches the NFC pseudo random number OTP data of the hybrid pseudo random number generator, The method of claim 1, further comprising the steps of:
A fast quantum random number generator in a secure platform comprises a fast random number source generator and a fast pseudo random number generator to generate a fast symmetric encryption key with a random random number source generated through a fast random number source generator, A fast asymmetric cryptographic key is encrypted and generated through a random number generator to transmit a fast symmetric cryptographic key and a fast asymmetric cryptographic key to the cloud server; The cloud server transmits a high speed asymmetric cryptographic key to the MAC address of the quantum terminal Modem chip;
The quantum terminal is composed of a Modem chip, an MCU, and a Power Amp. The MCU receives a high-speed asymmetric cryptographic key through a modem chip, and quantum terminal ID data obtained by encrypting the quantum terminal ID data with a high-speed asymmetric cryptographic key is amplified A cloud server transmission step for transmitting to the cloud server through a modem chip;
In the cloud server, when the quantum terminal ID data obtained by decoding the quantum terminal ID data encrypted with the high-speed asymmetric cryptographic key is encrypted with the high-speed symmetric cryptographic key, if the user matches the MAC address of the quantum terminal modem chip, -in) a bi-directional tunneling data communication;
When a cloud server is connected to a cloud server, a fast symmetric encryption key and a fast asymmetric encryption key are generated through a fast quantum random number generator to transmit a fast asymmetric encryption key to a cloud local server; The cloud local server decrypts the encrypted quantum terminal ID data, which is obtained by encrypting the quantum terminal ID data with the high-speed asymmetric cryptographic key, to the cloud server. When the cloud server decrypts the encrypted quantum terminal ID data with the high-speed symmetric encryption key and the quantum terminal ID data is registered, And a user log-in bidirectional tunneling data communication is opened between the quantum terminal and the cloud local server.
A fast quantum random number generator in a secure platform comprises a fast random number source generator and a fast pseudo random number generator to generate a fast symmetric encryption key with a random random number source generated through a fast random number source generator, A high speed asymmetric cryptographic key is encrypted and generated through a random number generator to transmit a fast symmetric cryptographic key and a fast asymmetric cryptographic key to the cloud server. The cloud server transmits a high speed asymmetric cryptographic key to the MAC address of the quantum terminal modem chip step;
The quantum terminal is composed of Modem Chip, MCU, Power Amp, and Sensor. The MCU receives the high speed asymmetric encryption key through the modem chip and encrypts the sensor data collected by the sensor with the high speed asymmetric encryption key. To the cloud server via Modem Chip; The cloud server includes a cloud server data storing step of storing sensor data obtained by decoding the sensor encryption data encrypted by the high-speed asymmetric encryption key with the fast symmetric encryption key;

When a cloud server is connected to a cloud server, a fast symmetric encryption key and a fast asymmetric encryption key are generated through a fast quantum random number generator to transmit a fast asymmetric encryption key to a cloud local server; When the cloud local server sends a cryptographic ID encrypted with a high-speed asymmetric cryptographic key to the cloud server, the cloud server decrypts it with a fast symmetric cryptographic key, and if the user ID is a registered user, the bidirectional tunneling data between the cloud server and the cloud local server A tunneling data transmission step of opening the communication and transmitting the sensor data decoded by the fast symmetric encryption key;
The local quantum random number generator comprises a local random number source generator and a local pseudo random number generator identical to the NFC pseudo random number OTP data to generate a local symmetric cryptographic key with a random random number source generated via a local random number source generator, A local quantum random number generator for generating a local asymmetric cryptographic key through the same local pseudorandom number generator as the NFC pseudo random number OTP data; The cloud local server transmitting the local asymmetric cryptographic key generated through the local quantum random number generator to the smartphone;
An OTP transmission step of transmitting NFC pseudo random number OTP data to the smart phone by tagging the NFC pseudo random number OTP to the smartphone NFC chip and transmitting the NFC pseudo random number OTP data to the smart phone and encrypting the NFC pseudo random number OTP data with the local asymmetric encryption key;
The cloud local server decrypts the NFC pseudo-random OTP data encrypted with the local asymmetric encryption key with a local symmetric encryption key, and when the NFC pseudo random number OTP data of the local pseudo random number generator matches the NFC pseudo random number OTP data tagged with the smartphone, And transmits the decrypted sensor data of the server to the smartphone. The authentication method of cloud quantum security using unidirectional quantum random number cryptographic key transmission technology.
A fast quantum random number generator in a secure platform comprises a fast random number source generator and a fast pseudo random number generator to generate a fast symmetric encryption key with a random random number source generated through a fast random number source generator, A high speed asymmetric cryptographic key is encrypted and generated through a random number generator to transmit a fast symmetric cryptographic key and a fast asymmetric cryptographic key to the cloud server. The cloud server transmits a high speed asymmetric cryptographic key to the MAC address of the quantum terminal modem chip step;
The quantum terminal is composed of a Modem chip, an MCU, and a Power Amp. The MCU receives a high-speed asymmetric cryptographic key through a modem chip, and quantum terminal ID data obtained by encrypting the quantum terminal ID data with a high-speed asymmetric cryptographic key is amplified To the cloud server via Modem Chip; In the cloud server, when the quantum terminal ID data obtained by decoding the quantum terminal ID data encrypted with the high-speed asymmetric cryptographic key is encrypted with the high-speed symmetric cryptographic key, if the user matches the MAC address of the quantum terminal modem chip, -in) a bi-directional tunneling data communication;
When a cloud server is connected to a cloud server, a fast symmetric encryption key and a fast asymmetric encryption key are generated through a fast quantum random number generator to transmit a fast asymmetric encryption key to a cloud local server; The cloud local server encrypts the cloud local server ID data with a high-speed asymmetric encryption key. When the cloud server sends the local server ID data to the cloud server, the cloud server decrypts it with a fast symmetric encryption key so that the cloud local server ID Way tunneling data communication between the cloud server and the cloud local server is opened and the quantum terminal ID data and the cloud local server ID data are the user registration ID data between the cloud terminal and the cloud local server, Wherein the multi-channel tunneling data communication for opening a user-log-in bi-directional tunneling data communication is opened.
A fast quantum random number generator in a secure platform comprises a fast random number source generator and a fast pseudo random number generator to generate a fast symmetric encryption key with a random random number source generated through a fast random number source generator, A high speed asymmetric cryptographic key is encrypted and generated through a random number generator to transmit a fast symmetric cryptographic key and a fast asymmetric cryptographic key to the cloud server. The cloud server transmits a high speed asymmetric cryptographic key to the MAC address of the quantum terminal modem chip step;
The quantum terminal is composed of Modem Chip, MCU, and Power Amp. The MCU receives the high speed asymmetric cryptographic key through the modem chip, amplifies the quantum terminal ID data encrypted with the high speed asymmetric cryptographic key in Power Amp, To the cloud server; In the cloud server, when the quantum terminal ID data obtained by decoding the quantum terminal ID data encrypted with the high-speed asymmetric cryptographic key is encrypted with the high-speed symmetric cryptographic key, if the user matches the MAC address of the quantum terminal modem chip, -in) a cloud server and a quantum terminal login step for opening bi-directional tunneling data communication;

When a cloud server is connected to a cloud server, a fast symmetric encryption key and a fast asymmetric encryption key are generated through a fast quantum random number generator to transmit a fast asymmetric encryption key to a cloud local server; The cloud local server encrypts the cloud local server ID data with the high-speed asymmetric encryption key. When the encrypted cloud local server ID data is transmitted to the cloud server, the cloud server decrypts it with the high-speed symmetric encryption key. If the cloud local server ID data is the registered user, Log-in between server and cloud local server Two-way tunneling Cloud server and cloud local server login phase to start data communication;
The local quantum random number generator comprises a local random number source generator and a local pseudo random number generator identical to the NFC pseudo random number OTP data to generate a local symmetric cryptographic key with a random random number source generated via a local random number source generator, A local quantum random number generator for generating a local asymmetric cryptographic key through the same local pseudorandom number generator as the NFC pseudo random number OTP data; The cloud local server sends the local asymmetric cryptographic key generated by the local quantum random number generator to the portable terminal; Tagging the NFC pseudo random number OTP to the portable terminal NFC chip transmits NFC pseudo random number OTP data to the portable terminal and transmits NFC pseudo random number OTP data encrypted with the local asymmetric encryption key to the cloud local server; The cloud local server decrypts the NFC pseudo random number OTP data encrypted with the local asymmetric encryption key with the local symmetric encryption key so that when the NFC pseudo random number OTP data of the local pseudo random number generator matches the NFC pseudo random number OTP data tagged with the portable terminal, And transmitting the data of the server to the portable terminal through the unidirectional quantum random number cryptographic key transmission technique.
When a cloud server is connected to a cloud server, a fast symmetric encryption key and a fast asymmetric encryption key are generated through a fast quantum random number generator to transmit a fast asymmetric encryption key to a cloud local server; The cloud local server encrypts the cloud local server ID data with the high-speed asymmetric encryption key. When the encrypted cloud local server ID data is transmitted to the cloud server, the cloud server decrypts it with the high-speed symmetric encryption key. If the cloud local server ID data is the registered user, A login step for opening a user login (Log-in) bidirectional tunneling data communication between the server and the cloud local server;
The local quantum random number generator comprises a local random number source generator and a local pseudo random number generator identical to the NFC pseudo random number OTP data to generate a local symmetric cryptographic key with a random random number source generated via a local random number source generator, A local quantum random number generator for generating a local asymmetric cryptographic key through the same local pseudorandom number generator as the NFC pseudo random number OTP data; The cloud local server sends the local asymmetric cryptographic key generated by the local quantum random number generator to the portable terminal; Tagging the NFC pseudo random number OTP to the portable terminal NFC chip transmits NFC pseudo random number OTP data to the portable terminal and transmits NFC pseudo random number OTP data encrypted with the local asymmetric encryption key to the cloud local server; The cloud local server decrypts the NFC pseudo random number OTP data encrypted with the local asymmetric encryption key with the local symmetric encryption key so that when the NFC pseudo random number OTP data of the local pseudo random number generator matches the NFC pseudo random number OTP data tagged with the portable terminal, And transmitting the data of the server to the portable terminal through the unidirectional quantum random number cryptographic key transmission technique.
The quantum random number generator includes a random number generator, a quantum detection diode, a quantum random pulse generator, a quantum random number controller, and an input / output unit. The quantum random number generator generates quantum particles And a quantum detection diode for detecting quantum particles generated from the random number source generator through a diffraction grating and a quantum particle event from the quantum detection diode to generate random pulses corresponding to the detection of quantum particles And a microprocessor for generating a quantum random number from a random random number source generated through the quantum random pulse generator, the input / output unit including a power port, an input data port, an output data port, and a ground port Random generator (1). The pseudo random number generator Chulhyeong housing and a quantum random number generator (2) of the structure in which the sealing (Housing) binding to the input and output units plate (Plate) depressed type input-output of the pseudo random number generator in the integrated; The pseudo random number generator includes a protruding input / output unit including a power port, an input data port, an output data port, and a ground port, which are inserted into the concave input / output unit of the quantum terminal, and a protruding input / output unit including a protruding input / 1. A pseudo random number generator (1) comprising an integral housing including a port, an input data port, an output data port, a recessed input / output section including a ground port, and a pseudo-random number control section; A pseudo-random number control unit driving the pseudo-random number control unit when the protruding input / output unit of the pseudo random number generator is inserted into the recessed input / output unit of the quantum terminal and receiving power supply through the power port and the ground port;
Wherein the pseudo-random number control unit receives GPS time data from the quantum terminal through an input data port and an output data port and generates a pseudo-random number cryptographic 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 control unit is driven by receiving power supply through the power port and the ground port;
Wherein the quantum random number control unit generates a symmetric cryptographic key through quantum random numbers generated through a random number source generator, a quantum detection diode, and a quantum random pulse generator in a quantum random number generator, and transmits the symmetric cryptographic key to a pseudo-random number control unit Transmitting step;
Wherein the pseudo-random number control unit receives the symmetric cryptographic key and generates an asymmetric cryptographic key encrypted using the pseudo-random number cryptographic key.
The quantum random number generator includes a quantum detection diode which is composed of a random number source generator, a quantum detection diode, a quantum random pulse generator, a quantum random number control unit, and an input / output unit and detects quantum particles generated from a random number source generator emitting quantum particles, A quantum random pulse generator for detecting a quantum particle event from a diode to generate a random pulse corresponding to the detection of quantum particles and a quantum random number generator for generating a quantum random number from a random random number source generated through the quantum random pulse generator, The input / output unit includes a power port, an input data port, an output data port, and a ground port. The input / output unit integrates the protruding input / output unit coupled with the depressed input / output unit of the pseudo random number generator, Which is sealed by a housing The generator; The pseudo random number generator includes a protruding input / output unit including a power port, an input data port, an output data port, and a ground port, which are inserted into the concave input / output unit of the quantum terminal, and a protruding input / output unit including a protruding input / A pseudo random number generator comprising an integral housing including a concave input / output unit including a port, an input data port, an output data port, and a ground port, and a pseudo-random number control unit; Wherein the pseudo-random number generator comprises: a pseudo-random number controller driving step of receiving a power supply through a power port and a ground port when the pseudo random number generator is inserted into the concave input / output unit of the quantum terminal,
Wherein the pseudo-random number control unit comprises: a cryptographic key generation step of generating a pseudo-random number cryptographic key by a random number generation program;
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 control unit is driven by receiving power supply through the power port and the ground port;
Wherein the quantum random number control unit generates a symmetric cryptographic key through quantum random numbers generated through a random number source generator, a quantum detection diode, and a quantum random pulse generator in a quantum random number generator, and transmits the symmetric cryptographic key to a pseudo random number controller in the pseudo random number generator. Transmitting step;
Wherein the pseudo-random number control unit receives the symmetric cryptographic key and generates an asymmetric cryptographic key using a pseudo-random number cryptographic key.
The quantum random number generator includes a quantum detection diode which is composed of a random number source generator, a quantum detection diode, a quantum random pulse generator, and a quantum random number control unit and detects quantum particles generated from a random number source generator emitting quantum particles, A quantum random pulse generator for detecting a quantum particle event to generate a random pulse corresponding to the detection of quantum particles, and a quantum random number controller for generating a quantum random number from a random random number source generated through the quantum random pulse generator A quantum random number generator; Wherein the pseudo-random number generator is a pseudo-random number generator comprising a microprocessor and generating a pseudo-random number by a random number generating program; Wherein the quantum random number control unit generates a symmetric cryptographic key through quantum random numbers generated through a random number source generator, a quantum detection diode, and a quantum random pulse generator in a quantum random number generator, and transmits the symmetric cryptographic key to a pseudo random number controller in the pseudo random number generator; Wherein the pseudo-random number control unit receives the symmetric encryption key and generates an asymmetric encryption key based on the pseudo-random number generated by the random number generation program.
Wherein the quantum server comprises a fast quantum random number generator and a fast pseudo random number generator, wherein the fast quantum random number generator generates a fast symmetric encryption key through a quantum random number;
A fast pseudorandom number generator generates a high-speed asymmetric cryptographic key through a pseudo-random number program on a fast symmetric cryptographic key, generates a cloud cryptographic key that is encrypted with the cloud asymmetric cryptographic key received from the cloud server, and transmits the cloud cryptographic key to the cloud server step;
The fast pseudo random number generator generates a terminal cryptographic key by encrypting a terminal asymmetric cryptographic key received from the quantum terminal through a fast asymmetric cryptographic key and transmits the terminal cryptographic key to the quantum terminal.
The cloud quantum random number generator in the cloud server includes a cloud quantum random number generator, a cloud random number generator, and a cloud random number generator. The cloud quantum random number generator is a random random number generator generated by the cloud random number generator, A cloud asymmetric cryptographic key generation step of generating a first cloud symmetric cryptographic key by encrypting a first cloud asymmetric cryptographic key through a cloud pseudo random number generator at the first cloud symmetric cryptographic key;
Wherein the terminal quantum random number generator comprises a terminal quantum random number controller, a terminal random number source generator, and a terminal pseudo random number generator, wherein the terminal quantum random number controller is a random random number source generated through a terminal random number source generator, Generating a first terminal asymmetric cryptographic key and generating a first terminal asymmetric cryptographic key using the terminal pseudorandom number generator at the first terminal symmetric cryptographic key;
The cloud server transmits the first cloud asymmetric cryptographic key to the quantum server via the network; The fast quantum random number generator and the fast pseudorandom number generator in the quantum server generate a first fast symmetric cryptographic key and a first fast asymmetric cryptographic key and transmit the first cloud asymmetric cryptographic key received from the cloud server through the first fast asymmetric cryptographic key And transmits the generated cloud cryptographic key to the cloud server; The quantum terminal transmits the first terminal asymmetric cryptographic key to the quantum server via the network; The fast quantum random number generator and the fast pseudorandom number generator in the quantum server generate a second fast symmetric cryptographic key and a second fast asymmetric cryptographic key and generate a first terminal asymmetric cryptographic key A bidirectional cryptographic key transmission step of generating a terminal encryption key by encrypting the terminal encryption key and transmitting the terminal encryption key to the quantum terminal;

In data communication between a cloud server and a quantum terminal,
When the cloud server generates the second cloud symmetric cryptographic key and the second cloud asymmetric cryptographic key through the cloud quantum random number generator and transmits the second cloud asymmetric cryptographic key to the quantum terminal, the quantum terminal transmits the second cryptographic key A terminal cryptographic key retransmission step of encrypting and retransmitting the terminal cryptographic key;
The cloud server transmits the terminal encryption key decrypted with the second cloud symmetric encryption key to the quantum server; The quantum server transmits to the cloud server a first terminal asymmetric cryptographic key decrypting the terminal cryptographic key encrypted with the second fast asymmetric cryptographic key through the second fast symmetric cryptographic key; When the quantum terminal generates the second terminal symmetric cryptographic key and the second terminal asymmetric cryptographic key through the terminal quantum random number generator and transmits the second terminal asymmetric cryptographic key to the cloud server, the cloud server transmits the second terminal asymmetric cryptographic key to the cloud Encrypt and retransmit the encryption key; The quantum terminal transmits the cloud cryptographic key decrypted with the second terminal symmetric cryptographic key to the quantum server; The quantum server comprising: a cryptographic key retransmission step of transmitting a first cloud asymmetric cryptographic key decrypting a cloud cryptographic key encrypted with a first high-speed asymmetric cryptographic key to a quantum terminal through a first fast symmetric cryptographic key;
The data transmission from the cloud server to the quantum terminal is carried out with the first terminal asymmetric cryptographic key and decrypted with the first terminal symmetric cryptographic key; A method for authenticating cloud quantum security using a unidirectional quantum random number cryptographic key transmission technique characterized by data communication in which data transmission from a quantum terminal to a cloud server is performed with a first cloud symmetric cryptographic key when transmitted with a first cloud asymmetric cryptographic key.
A fast quantum random number generator and a fast pseudorandom number generator generate a fast symmetric cryptographic key through a quantum random number and a fast pseudorandom number generator and a fast pseudorandom number generator generate a pseudorandom number A fast pseudorandom number generator for generating a fast asymmetric cryptographic key via a random number generator;
Wherein the cloud server comprises a cloud quantum random number generator and a cloud pseudorandom number generator, wherein the cloud quantum random number generator in the cloud server generates a first cloud symmetric encryption key with a random random number source and a cloud pseudorandom number generator with the first cloud symmetric encryption key, A cloud server for encrypting and generating a first cloud asymmetric cryptographic key;
Wherein the local server comprises a terminal quantum random number generator and a terminal pseudo-random number generator, wherein the terminal quantum random number generator in the local server generates a first terminal symmetric cryptographic key with a random random number source, A local server for encrypting and generating a first terminal asymmetric cryptographic key through a random number generator;

The cloud server transmits the first cloud asymmetric cryptographic key to the quantum server via the network; The fast quantum random number generator and the fast pseudorandom number generator in the quantum server generate a first fast symmetric cryptographic key and a first fast asymmetric cryptographic key and transmit the first cloud asymmetric cryptographic key received from the cloud server through the first fast asymmetric cryptographic key Generating a cloud cryptographic key encrypted with the public key and transmitting it to the cloud server;
The local server transmits the first terminal asymmetric cryptographic key to the quantum server via the network, the fast quantum random number generator and the fast pseudorandom number generator in the quantum server generate the second fast symmetric cryptographic key and the second fast asymmetric cryptographic key Transmitting a terminal cryptographic key for transmitting a terminal cryptographic key to a local server by generating a terminal cryptographic key obtained by encrypting a first terminal asymmetric cryptographic key received from a local server through a second high speed asymmetric cryptographic key;

For login data communication between the cloud server and the local server,
When the cloud server generates the second cloud symmetric cryptographic key and the second cloud asymmetric cryptographic key via the cloud quantum random number generator and then sends the second cloud asymmetric cryptographic key to the local server, the local server sends the second cryptographic 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 to the cloud server a first terminal asymmetric cryptographic key decrypting the terminal cryptographic key encrypted with the second fast asymmetric cryptographic key through the second fast symmetric cryptographic 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, Encrypt and retransmit the encryption key; The local server transmits the cloud cryptographic key decrypted with the second terminal symmetric cryptographic key to the quantum server; The quantum server includes: a login data communication step between a cloud server and a local server transmitting a first cloud asymmetric encryption key decrypting a cloud encryption key encrypted with a first high-speed asymmetric encryption key through a first fast symmetric encryption key to a local server;

The data transmission from the cloud server to the local server is performed with the first terminal asymmetric cryptographic key and decrypted with the terminal first symmetric cryptographic key; The data transfer from the local server to the cloud server is log-in via data communication decrypted with the first cloud symmetric encryption key when transmitted with the first cloud asymmetric encryption key; A second fast asymmetric cryptographic key, a first terminal asymmetric cryptographic key, a first terminal symmetric cryptographic key, a first terminal symmetric cryptographic key, a first fast symmetric cryptographic key, Wherein the second terminal asymmetric cryptographic key, the second terminal symmetric cryptographic key, the first cryptographic asymmetric cryptographic key, the first cryptographic symmetric cryptographic key, the second cryptographic asymmetric cryptographic key and the second cryptographic symmetric cryptographic key are destroyed. Cloud Quantum Security Authentication Method Using Random Number Cryptography.
A high-speed quantum random number generator in a quantum server includes a high-speed random-number source generator configured to generate quantum particles and configured of a high-speed random number source generator, a high-speed quantum detection diode, a high-speed quantum random pulse generator, A high-speed quantum detection diode for detecting quantum particles generated from a random number source generator and a high-speed quantum random pulse generator for generating a random pulse corresponding to the detection of quantum particles by detecting a quantum particle event from the high-speed quantum detection diode; Wherein the controller is a fast quantum random number controller for generating a fast quantum random number by generating a fast quantum random number with a random random number source generated through the fast quantum random pulse generator; Wherein the fast quantum random number control unit transmits a fast symmetric encryption key to a fast pseudorandom number generator comprising a microprocessor; Wherein the fast pseudorandom number generator generates a fast asymmetric cryptographic key using a fast symmetric cryptographic key and generates a cloud cryptographic key encrypted with the cloud asymmetric cryptographic key received from the cloud server and transmits the generated cloud cryptographic key to the cloud server; Wherein the fast pseudorandom number generator generates a fast asymmetric cryptographic key using a fast symmetric cryptographic key to generate a terminal cryptographic key that is encrypted by the terminal asymmetric cryptographic key received from the quantum terminal and transmits the generated cryptographic key to the quantum terminal;

The cloud quantum random number generator in the cloud server includes a cloud random number source generator which is composed of a cloud random number source generator, a cloud quantum detection diode, a cloud quantum random number generator, a cloud quantum random number generator, and a cloud pseudo random number generator, A cloud quantum detection diode for detecting quantum particles generated from a random number source generator and a cloud quantum random pulse generator for detecting a quantum particle event from the cloud quantum detection diode to generate a random pulse corresponding to the detection of quantum particles, Wherein the controller is a cloud quantum random number controller configured by a microprocessor and generating a random random number from a random random number source generated through the cloud quantum random pulse generator to generate a cloud symmetric encryption key; Wherein the cloud quantum random number control unit transmits the cloud symmetric cryptographic key to a cloud pseudo-random number generator comprising a microprocessor; Wherein the cloud pseudo random number generator comprises: a cloud cryptographic key encryption step of encrypting and generating a cloud asymmetric cryptographic key through a cloud symmetric cryptographic key;

The terminal quantum random number generator in the quantum terminal comprises a terminal random number source generator, a terminal quantum detection diode, a terminal quantum random number generator, a terminal quantum random number controller, and a terminal pseudo random number generator, A terminal quantum detection diode for detecting quantum particles generated from a random number source generator and a terminal quantum random pulse generator for detecting a quantum particle event from the terminal quantum detection diode to generate a random pulse corresponding to the detection of quantum particles, Wherein the controller is a terminal quantum random number controller for generating a terminal symmetric cryptographic key by generating a quantum random number from a random random number source generated through the terminal quantum random pulse generator; Wherein the terminal quantum random number control unit transmits the terminal symmetric cryptographic key to a terminal pseudo-random number generator comprising a microprocessor; The terminal pseudo-random number generator encrypts and generates a terminal asymmetric cryptographic key using a terminal symmetric cryptographic key;

The cloud server transmits the first cloud asymmetric cryptographic key to the quantum server via the network; The fast pseudorandom number generator in the quantum server generates and transmits to the cloud server a cloud cryptographic key obtained by encrypting the first cloud asymmetric cryptographic key received from the cloud server through the fast asymmetric cryptographic key; The quantum terminal transmits the first terminal asymmetric cryptographic key to the quantum server via the network; The fast pseudorandom number generator in the quantum server generates a terminal cryptographic key by encrypting the first terminal asymmetric cryptographic key received from the quantum terminal through the fast asymmetric cryptographic key and transmits the terminal cryptographic key to the quantum terminal ;

In data communication between a cloud server and a quantum terminal,
When the cloud server generates the second cloud asymmetric cryptographic key through the cloud quantum random number generator and transmits the second cloud asymmetric cryptographic key to the quantum terminal, the quantum terminal encrypts and retransmits the terminal cryptographic key with the second cloud asymmetric cryptographic key; The cloud server transmits the terminal encryption key decrypted with the second cloud symmetric encryption key to the quantum server; The quantum server transmits to the cloud server a first terminal asymmetric cryptographic key decrypting the terminal cryptographic key encrypted with the fast asymmetric cryptographic key through the fast symmetric cryptographic key; When the quantum terminal generates the second terminal asymmetric cryptographic key through the terminal quantum random number generator and transmits the second terminal asymmetric cryptographic key to the cloud server, the cloud server encrypts and retransmits the cloud cryptographic key with the second terminal asymmetric cryptographic key; The quantum terminal transmits the cloud cryptographic key decrypted with the second terminal symmetric cryptographic key to the quantum server; The asymmetric cryptographic key transmission step of transmitting the first cloud asymmetric cryptographic key decrypting the cloud cryptographic key encrypted with the high-speed asymmetric cryptographic key to the quantum terminal through the fast symmetric cryptographic key;
When the data transmission from the cloud server to the quantum terminal is carried out with the first terminal asymmetric cryptographic key authenticated through the quantum server, the quantum terminal decodes with the first terminal symmetric cryptographic key; The data transmission from the quantum terminal to the cloud server is performed using the first cloud asymmetric cryptographic key authenticated through the quantum server, and the cloud server decrypts the data with the first cloud symmetric cryptographic key. Cloud Quantum Security Authentication Method.
Wherein the quantum server comprises a fast quantum random number generator and a fast pseudorandom number generator, wherein the fast quantum random number generator generates a fast symmetric encryption key via a quantum random number; A fast pseudorandom number generator generates a high-speed asymmetric cryptographic key through a pseudo-random number program on a fast symmetric cryptographic key, generates a cloud cryptographic key encrypted with the cloud asymmetric cryptographic key received from the cloud server, A cryptographic key generation step of generating a terminal cryptographic key by encrypting a terminal asymmetric cryptographic key received from the quantum terminal through a fast asymmetric cryptographic key and transmitting the terminal cryptographic key to the quantum terminal;
The cloud quantum random number generator in the cloud server includes a cloud quantum random number generator, a cloud random number generator, and a cloud pseudo random number generator. The cloud quantum random number generator is a random random number generator generated by the cloud random number generator, A cloud quantum random number generation step of encrypting and generating a cloud asymmetric encryption key through a cloud pseudo random number generator at the cloud symmetric encryption key;
The terminal quantum random number generator includes a terminal quantum random number controller, a terminal random number source generator, and a terminal pseudo random number generator. The terminal quantum random number controller generates a terminal symmetric cipher key as a random random number source generated through a terminal random number source generator A terminal quantum random number generating step of generating and encrypting a terminal asymmetric cryptographic key using the terminal pseudo random number generator at the terminal symmetric cryptographic key;
The cloud server transmits the cloud asymmetric cryptographic key to the quantum server via the network and the fast pseudorandom number generator inside the quantum server generates the cloud cryptographic key that is encrypted by the cloud asymmetric cryptographic key received from the cloud server through the asymmetric cryptographic key To the cloud server, and the quantum terminal transmits the terminal asymmetric cryptographic key to the quantum server through the network, and the fast pseudorandom number generator in the quantum server encrypts the terminal asymmetric cryptographic key received from the quantum terminal through the asymmetric cryptographic key, Generating a terminal encryption key and transmitting the terminal encryption key to the quantum terminal;
When the cloud server transmits the cloud asymmetric cryptographic key to the quantum terminal, the quantum terminal encrypts and retransmits the terminal cryptographic key with the cloud asymmetric cryptographic key; The cloud server transmits the terminal encryption key decrypted with the cloud symmetric encryption key to the quantum server; The quantum server decrypting the terminal cryptographic key encrypted with the fast asymmetric cryptographic key through the fast symmetric cryptographic key, and transmitting the terminal asymmetric cryptographic key to the cloud server;
When the quantum terminal transmits the terminal asymmetric cryptographic key to the cloud server, the cloud server encrypts and retransmits the cloud cryptographic key with the terminal asymmetric cryptographic key; The quantum terminal transmits the cloud cryptographic key decrypted with the terminal symmetric cryptographic key to the quantum server; The quantum server decrypting the cloud cryptographic key encrypted by the high-speed asymmetric cryptographic key through the fast symmetric cryptographic key, and transmitting the cloud asymmetric cryptographic key to the quantum terminal;
The data transmission from the cloud server to the quantum terminal is carried out with the terminal asymmetric cryptographic key, and decrypted with the terminal symmetric cryptographic key; A method of cloud quantum security authentication using a unidirectional quantum random number cryptographic key transmission technique characterized by data communication in which data transmission from a quantum terminal to a cloud server is performed using a cloud symmetric cryptographic key when transmitted with a cloud asymmetric cryptographic key.
The quantum server comprises a fast quantum random number generator and a fast pseudorandom number generator, wherein the fast quantum random number generator generates a fast symmetric encryption key via a quantum random number and the fast pseudorandom number generator generates a fast symmetric encryption key A fast asymmetric cryptographic key generation step of generating an encryption key;
The cloud server comprises a cloud quantum random number generator and a cloud pseudorandom number generator, wherein the cloud quantum random number generator generates a cloud symmetric encryption key with a random random number source and encrypts the cloud asymmetric encryption key with the cloud symmetric encryption key via the cloud pseudorandom number generator. Generating a cloud asymmetric encryption key;
The local server includes a terminal quantum random number generator and a terminal pseudo-random number generator. The local server generates a terminal symmetric cryptographic key through a terminal quantum random number generator, and encrypts the terminal asymmetric cryptographic key with the terminal symmetric cryptographic key A step of generating a terminal asymmetric cryptographic key;
The cloud server transmits the cloud asymmetric cryptographic key to the quantum server via the network; Generating a cloud cryptographic key by encrypting the cloud asymmetric cryptographic key received from the cloud server through a high-speed asymmetric cryptographic key and transmitting the generated cloud cryptographic key to the cloud server;
The local server transmits the terminal asymmetric cryptographic key to the quantum server via the network; Generating a terminal cryptographic key by encrypting a terminal asymmetric cryptographic key received from a local server through a high speed asymmetric cryptographic key and transmitting the terminal cryptographic key to a local server;

When the cloud server sends the cloud asymmetric cryptographic key to the local server, the local server encrypts and retransmits the terminal cryptographic key with the cloud asymmetric cryptographic key; The cloud server transmits the terminal encryption key decrypted with the cloud symmetric encryption key to the quantum server; The quantum server decrypting the terminal cryptographic key encrypted with the fast asymmetric cryptographic key through the fast symmetric cryptographic key, and transmitting the terminal asymmetric cryptographic key to the cloud server;
When the local server transmits the terminal asymmetric cryptographic key to the cloud server, the cloud server encrypts and retransmits the cloud cryptographic key with the terminal asymmetric cryptographic key; The local server transmits the cloud encryption key decrypted with the terminal symmetric encryption key to the quantum server; The quantum server includes a cloud cryptographic key decryption step of transmitting a cloud asymmetric cryptographic key decrypting a cloud cryptographic key encrypted with a fast asymmetric cryptographic key to a local server through a fast symmetric cryptographic key;
The data transmission from the cloud server to the local server is decrypted with the terminal symmetric cryptographic key if the data is transmitted with the terminal asymmetric cryptographic key; Data transfer from the local server to the cloud server is performed via data communication decrypted with the cloud symmetric encryption key when transmitted with the cloud asymmetric encryption key; Wherein the terminal asymmetric cryptographic key and the cloud asymmetric cryptographic key are destroyed at the time of logout, and the cloud quantum security authentication method using the unidirectional quantum cryptographic key transmission technique.
A terminal pseudo random number generator in a quantum terminal and a cloud pseudo random number generator in a cloud server are a terminal pseudo random number generator and a cloud pseudo random number generator which are composed of a microprocessor and generate the same pseudo random number by a program input pseudo random number program;
The terminal quantum random number generator includes a terminal random number source generator configured to comprise a terminal random number source generator, a terminal quantum detection diode, a terminal quantum random pulse generator, and a terminal quantum random number control unit,
A terminal quantum detection diode for detecting quantum particles generated from the terminal random number source generator;
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;
Wherein the terminal quantum random number control unit comprises a microprocessor and is a terminal quantum random number controller for generating a first terminal quantum random number from a random random number source generated through the terminal quantum random pulse generator;
The quantum terminal comprises a terminal pseudo random number generator, a terminal quantum random number generator, an OTP memory, a security authentication switch, and a quantum random number controller. When the cloud server accesses the quantum terminal,

The terminal pseudo random number generator generates a pseudo random number by a program to generate a first symmetric cryptographic key and transmits the first symmetric cryptographic key to the terminal quantum random number controller of the terminal quantum random number generator;
The terminal quantum random number control unit receives the primary symmetric cryptographic key, generates a primary terminal asymmetric cryptographic key through the primary terminal quantum random number, and transmits the generated primary terminal asymmetric cryptographic key to the quantum random number control unit;
The quantum random number control unit may include a transmitting step of storing the first symmetric encryption key and the first terminal asymmetric encryption key in the OTP memory and transmitting the first terminal asymmetric encryption key to the cloud server;
The cloud pseudo random number generator in the cloud server generates a pseudo random number by a program and generates a first symmetric cryptographic key through a pseudo random number generated by the same program as the terminal pseudo random number generator and encrypts it with the first terminal asymmetric cryptographic key A cryptographic key transmission step of generating a car cloud symmetric cryptographic key and transmitting it to a quantum random number control unit in 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 when the primary symmetric encryption key matches, A login step to connect the network;

The terminal quantum random number control unit in the terminal quantum random number generator includes a second terminal quantum random number generation step of generating a second terminal quantum random number with a random random number source generated through a terminal quantum random pulse generator;
Wherein the terminal pseudo random number generator generates a pseudo random number by a program to generate a second symmetric cryptographic key and transmits the second symmetric cryptographic key to the terminal quantum random number controller of the terminal quantum random number generator;
The terminal quantum random number control unit receives the secondary symmetric cryptographic key, generates a secondary terminal asymmetric cryptographic key through the secondary terminal quantum random number, and transmits the asymmetric cryptographic key to the quantum random number controller;
Wherein the quantum random number control unit comprises: a cloud server transmission step of storing the quadratic symmetric encryption key in the OTP memory and transmitting the asymmetric encryption key of the secondary terminal to the cloud server;
Wherein the quantum random number control unit blocks the network through the security authentication switch when the primary symmetric encryption key and the primary terminal asymmetric encryption key of the OTP memory are deleted and log out,
The quantum random number control unit receives the secondary terminal asymmetric cryptographic key transmitted when the cloud server is reconnected and decrypts it with the quadratic symmetric cryptographic key of the OTP memory to connect the log-in network through the security authentication switch A method for cloud quantum security authentication using unidirectional quantum random number cryptography.
The method of claim 1, 2, 3, 4, 5, 6, 8, 9, 10, 11, 12, 14, 15 21. The method according to any one of claims 17, 18, 19, 20 and 21,
The quantum terminal can be a local server, a cloud terminal, a cloud terminal server, a surveillance camera, an automatic controller, a broadcasting device, a solar photovoltaic board, an inverter, a fuel cell controller, (LOW POWER AREA), LPWAN (Low Power Wide Area Network), LPWAN (Low Power Wide Area Network), LPWAN ) Terminal,
Data communication can be performed in a wide range of applications such as LTE (Long Term Evolution), LoRA, NB-IoT, Sigfox, UNBWAN, LoRAWAN, WeightlessWAN, Long Term Evolution Wide Area Network (LTEWAN) And a low power wide area network (hereinafter, referred to as " low power wide area network ").
The method of claim 1, 2, 3, 4, 5, 6, 8, 9, 10, 11, 12, 14, 15 21. The method according to any one of claims 17, 18, 19, 20 and 21,
The data transmission from the cloud server to the quantum terminal is carried out with the terminal asymmetric cryptographic key, and decrypted with the terminal symmetric cryptographic key;
Data transmission from a quantum terminal to a cloud server is performed by a cloud asymmetric cryptographic key, and data is communicated to the cloud server and the quantum terminal through data communication, which is decrypted with a cloud symmetric cryptographic key, Wherein the terminal asymmetric cryptographic key, the terminal symmetric cryptographic key, the cloud asymmetric cryptographic key, and the cloud symmetric cryptographic key are deleted in a log-out state.
The method of claim 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13 The method according to any one of claims 14, 15, 16, 17, 18, 19, 20,
Wherein the quantum random number generator and the pseudo random number generator are integrated on an embedded electronic circuit board or a high density printed circuit board (HDI PCB) to perform data communication through an IO port. Security Authentication Method.
The method according to any one of claims 3, 4, 5, 6, 7, 9, 10, 11, 12, 13, 14, 15, 16 21. The method according to any one of claims 17, 18, 19, 20 and 21,
The ISP provider control server further generates a hybrid symmetric cryptographic key through the hybrid quantum random number generator and then transmits the hybrid asymmetric cryptographic key to the hybrid symmetric cryptographic key through the same hybrid pseudorandom number generator as the NFC pseudo random number OTP data, And transmits it to the smartphone;
When the NFC pseudo random number OTP storing the same NFC pseudo random number OTP data as the hybrid pseudo random number generator is tagged on the smartphone NFC chip, the NFC pseudo random number OTP data is transmitted to the smart phone and the NFC pseudo random number OTP data encrypted with the hybrid asymmetric cryptographic key To the ISP operator control server;
When the ISP provider control server decrypts the data encrypted with the hybrid asymmetric cryptographic key received from the smart phone with the hybrid symmetric cryptographic key and matches the NFC pseudo random number OTP data of the hybrid pseudo random number generator, The method comprising the steps of: (a) transmitting a first key to a user;
The method of any one of claims 1, 2, 3, 4, 5, and 6,
The low-rate terminal quantum random number generator includes a low-rate terminal random number generator and a low-rate terminal pseudo-random number generator, and generates a terminal symmetric cryptographic key through a low-rate terminal pseudo-random number generator, A low-rate terminal quantum random number generator for encrypting and generating a terminal asymmetric cryptographic key with a random random number source generated;
A fast quantum random number generator comprises a fast random number source generator and a fast pseudo random number generator to generate a fast symmetric cryptographic key through a fast pseudorandom number generator and to generate a fast symmetric cryptographic key using a random random number source generated by a fast random number source generator A fast quantum random number generator for encrypting and generating a fast asymmetric cryptographic key;
The low-speed local quantum random number generator comprises a low-speed local random number source generator and a low-speed local pseudo-random number generator to generate a local symmetric cryptographic key via a low-speed local pseudo-random number generator, A method for cloud quantum security authentication using a unidirectional quantum cryptographic key transmission technique characterized by a low speed local quantum random number generator for generating a local asymmetric cryptographic key via a random random number source generated.
The method according to any one of claims 9, 10, 12 and 13,
The high-speed quantum random number generator in the security platform includes a high-speed random number source generator and a fast pseudo random number generator to generate a fast symmetric encryption key through a fast pseudorandom number generator and to generate a fast symmetric encryption key Generate a fast asymmetric cryptographic key with a random random number source;
The local quantum random number generator comprises a local random number source generator and a local pseudo random number generator identical to the NFC pseudo random number OTP data to generate a local symmetric cryptographic key through the same local pseudo random number generator as the NFC pseudo random number OTP data, And a local quantum random number generator for generating a local asymmetric cryptographic key with a random random number source generated through a local random number source generator in a cryptographic key.
The method according to any one of claims 14, 15 and 16,
The pseudo-random number generator includes a microprocessor and generates a pseudo-random number by a random number generating program. The pseudo-random number generator generates a symmetric cryptographic key through a pseudo random number generated by the pseudo-random number controller, To a random number control unit;
The quantum random number generator comprises a random number source generator, a quantum detection diode, a quantum random pulse generator, and a quantum random number controller,
A quantum detection diode for detecting quantum particles generated from a random number source generator that emits quantum particles;
A quantum random pulse generator for detecting a quantum particle event from the quantum detection diode and generating a random pulse corresponding to the detection of the quantum particle;
A quantum random number controller configured to generate a quantum random number from a random random number source generated through the quantum random pulse generator;
Wherein the quantum random number controller receives the symmetric cryptographic key from the pseudo random number generator and generates an asymmetric cryptographic key through the quantum random number.
The method of any one of claims 17, 18, 19, 20 and 21,
The quantum server consists of a fast quantum random number generator and a fast pseudo random number generator,
The fast pseudo-random number generator generates a fast symmetric encryption key through a pseudo-random number program;
Wherein the fast quantum random number generator generates a fast asymmetric cryptographic key on the fast symmetric cryptographic key via a quantum random number;

The cloud quantum random number generator consists of a cloud quantum random number controller 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;
The cloud quantum random number control unit generates a cloud asymmetric cryptographic key through quantum random numbers in the cloud symmetric cryptographic key;

The terminal quantum random number generator includes a terminal quantum random number controller and a terminal pseudo random number generator,
The terminal pseudo-random number generator generates a terminal symmetric cryptographic key through a pseudo-random number program;
Wherein the terminal quantum random number control unit generates a terminal asymmetric cryptographic key through quantum random numbers in the terminal symmetric cryptographic key.

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