1102 results about "Random number generation" patented technology

Various systems and methods are directed to an electro-mechanical dice shaker gaming system designed to enhance fairness, transparency, and security in wager-based gaming environments. The system includes an electro-mechanical random number generator (RNG) assembly that physically isolates the dice shaking mechanism from the player terminal, preventing external interference from affecting game outcomes. The dice shaker mechanism is housed in a transparent enclosure, allowing players and casino operators to visually verify each roll. Integrated sensors, including tilt and vibration detectors, monitor environmental conditions to detect and prevent tampering. A camera-based monitoring system captures images of each dice roll, facilitating automated outcome verification and compliance auditing. The system supports modular configurations for multi-player gaming, real-time streaming for remote participation, and AI-driven fraud detection. Additionally, an adjustable mirror enhances dice visibility, and automated mechanisms allow dynamic control over the number of dice in play, offering a scalable and secure gaming solution.

The invention discloses a computer network data secure transmission system and method, and particularly relates to the technical field of network data secure transmission, and the system comprises a dynamic key management module which generates a key seed through a quantum random number generator, generates a dynamic key bound with a data packet in combination with a timestamp, and transmits the dynamic key to a server; after being encrypted by a receiving end public key, the data are transmitted through an independent verification channel; the dual-path transmission control module is used for establishing dual channels of a main path and a shadow path, a data packet of the main path is embedded into a random camouflage protocol header to simulate a non-sensitive protocol, and a blank data packet is filled in the shadow path to maintain traffic characteristics; according to the real-time verification engine, a receiving end constructs an encrypted hash tree to achieve fragment-level integrity verification, and meanwhile, requests key state three-state verification from the key management module. Through key dynamic generation and separation transmission, dual-path adaptive fragmentation distribution, fragmentation hash tree reconstruction and key linkage verification, and abnormal triggering fragmentation level retransmission, the problems of long-term effectiveness of a static key, predictable transmission path and verification lag are solved.

Systems and methods for securing transactions in accordance with various embodiments of the invention are illustrated. One embodiment includes a method for confirming token ownership rights. The method generates a pre-image value using a random number generator. The method generates an action request that corresponds to an action performed cryptographic token(s). The method derives a commit output based on the pre-image value. The method generates a commit request that obfuscates the action request based on the commit output and submits the commit request to an immutable ledger. The method receives a confirmation when the commit request is approved by the ledger. When a reveal request referencing the commit output is published, the method receives a confirmation of at least one of: the reveal request being published, that the reveal request comprises a reference to the commit output, or that the action request has been approved.

The invention discloses a wireless communication network data secure transmission method and system, and relates to the technical field of secure transmission. During system operation, agricultural monitoring data are collected in real time through various sensor devices arranged in an agricultural environment, encryption processing is performed by using a symmetric encryption algorithm, and a dynamic key length adjustment mechanism is supported; a random number generator is integrated, unified management is performed on key generation, distribution, updating and destruction in a system, a timestamp or a random serial number is embedded into each data packet, the uniqueness of the timestamp or the serial number is verified at a receiving end, so that replay attacks are resisted, and the data are comprehensively analyzed and evaluated according to a set algorithm, so that the replay attack is prevented. The method comprises the following steps: acquiring a security data transmission performance index SDTP through calculation, generating a monitoring report, detecting abnormal conditions in a data transmission process, including channel quality reduction, data loss or verification failure, and providing a visual monitoring result.

A hardware device comprising an accelerator enclave and a hardware security module, HSM, the HSM including a first true random number generator, TRNG. The accelerator enclave includes a second TRNG and an accelerator. The HSM is configured to: generate a first session key using the first TRNG; establish a first secure communication channel with a cloud user using the first session key; receive an encrypted hardware configuration bitstream through the first secure communication channel; decrypt the hardware configuration bitstream; configure functional blocks in the at least one accelerator based on the hardware configuration bitstream. The accelerator enclave is configured to: generate a second session key using the second TRNG; establish a second secure communication channel with the cloud user using the second session key as encryption key; receive encrypted input data through the second secure communication channel; decrypt the encrypted input data; process the input data using the functional blocks.

The invention belongs to the technical field of network security, and discloses an encrypted enterprise network data security access method and system, and the method comprises the steps: constructing a biological recognition unit and an equipment binding unit, recognizing multi-dimensional biological data through the biological recognition unit, and carrying out the identity authentication of a user through the combination of a dynamic token generation time binding mechanism; the equipment binding unit associates the identity authentication result with the hardware fingerprint of the security access terminal to generate a digital identity certificate; a basic key is generated and updated in a rolling mode through a quantum random number generator; dual protection is carried out on the multi-dimensional biological data through a hierarchical encryption unit, the hierarchical encryption unit comprises an application layer and a transmission layer, the application layer adopts an SM4 algorithm to encrypt service content data in the multi-dimensional biological data, and the transmission layer adopts an SM2 algorithm to generate a session key to carry out forward secrecy; the security access of enterprise network data is ensured, and the security protection capability of the enterprise network is comprehensively enhanced.

The invention provides a firmware encryption method and system based on a device unique identifier and dynamic key verification, and relates to the technical field of firmware protection, and the method comprises the steps: obtaining a unique identifier of a device, the unique identifier being hardware feature information which cannot be modified; a dynamic key is generated based on the unique identifier and the random number, and the dynamic key is realized through an encryption algorithm and is regenerated every time the device is started or firmware is updated; the dynamic key is stored in a storage area protected by hardware, and the storage area is subjected to double protection of hardware isolation and logic encryption; and when the device is started, the dynamic key is regenerated, the unique identifier of the dynamic key and the unique identifier of the dynamic key stored in the storage area are compared and verified, if the dynamic key and the unique identifier are consistent, firmware operation is allowed, and otherwise, a safety response mechanism is triggered. According to the invention, the security and reliability of firmware protection can be improved.

An electronic gaming machine comprising a display device, a random number generator, a processor, and a memory storing instructions which, cause the processor to, in response to a feature wheel initiation condition being met: select, based on one or more random numbers dynamically generated by the random number generator, stopping positions for a plurality of feature wheels, each of the feature wheels being associated with a different feature event corresponding to a spinning reel, and each of the feature wheels comprising a plurality of outcomes at different stopping positions, wherein at least one of the different stopping positions corresponds to an outcome; control the display device to display spinning to the stopping positions selected; determine whether to provide an outcome from the plurality of outcomes; and upon determining to provide more than one outcome comprising the feature event, initiate a composite feature event.

The invention discloses an Internet of Things data transmission security enhancement method combined with quantum random number generation, which comprises the following steps of: generating a high-security and unpredictable random number seed through a quantum random number generator, and generating a dynamic binding key in combination with a unique identifier of equipment and a timestamp, the binding key is used for generating a shared session key between devices through a quantum secure handshake protocol, so that the confidentiality and integrity of data transmission are ensured, a dynamic key updating mechanism is introduced, the binding key and the session key are updated regularly, the security risk caused by long-term use of the same key is avoided, a key destruction mechanism is designed, and the security of data transmission is ensured. A session key is completely destroyed after a session is ended, a malicious attacker is prevented from recovering the key, and a standby key generation and synchronization mechanism ensures that the system can automatically switch to a standby key when key synchronization fails or communication is abnormal, so that data transmission is not affected. The method has the advantages of good expandability and high safety.

A method of embedding a watermark into an Al LLM output comprising inputting a text prompt to an LLM, the LLM generating a first token text output. Binary reduction is performed on the token text output and generating watermarks using a watermark-seeded random number generator. The watermarks are applied to successive bits of the character set representations of the output by making a decision about accepting a completed token using a second random number generator that is distinct from the first random number generator, wherein the acceptance decision is made with probability equal to the relative probability of the completed token among all remaining possible tokens from a current model PDF. Upon acceptance of a completed token, it is added to the output and a new model PDF is generated. For tokens not accepted, these steps are repeated using the current model PDF. The process is repeated for each token text output of the LLM in response to the text prompt.

The invention discloses a multi-dimensional random number generator and a multi-dimensional random number generation method. The multi-dimensional random number generator comprises a single photon source, a polarization beam splitter, a 50: 50 beam splitter, a first single photon detector, a second single photon detector, a third single photon detector, a photon counter and a control processing module. Extraction and conversion of polarization correlation randomness, path correlation randomness and time correlation randomness are completed in the same system, the quantum random number sequence based on multiple principles is generated, the multi-dimensional quantum random number sequence is generated through a characteristic joint coding method, the randomness is higher, and the quantum random number sequence is more uniform. Extra chip hardware is not needed to provide computing power and post-processing operation, and the process is simpler, more efficient and more stable. In addition, the multi-dimensional random number generator provided by the invention is simpler and more compact in structure, and the entropy source utilization efficiency and the device damage resistance of the quantum random number generator are improved.

The invention discloses a server hardware testing terminal and method, and relates to the technical field of server hardware testing, and the method comprises the steps: obtaining server hardware configuration parameters and storage equipment specification information, collecting the number of processor cores, memory capacity and storage equipment read-write speed reference data through a system monitoring interface, building a hardware performance baseline file, and storing the baseline file in a server; obtaining a complete hardware resource list and a performance index range; the method comprises the following steps: constructing a multi-dimensional workload model according to information retrieval scene features, creating query request sets of different scales by adopting a random number generator, simulating a mixed load mode of full-text retrieval and database query, and determining resource consumption weights and execution time distribution of various query operations; and analyzing query request distribution characteristics in the workload model through a dynamic load balancing algorithm, if query requests are concentrated in a specific time period, adjusting a load distribution strategy, obtaining a uniformly distributed test load sequence, and judging the impact degree of a load peak value on hardware resources.

The invention relates to the technical field of network security, in particular to a distributed key management and encryption communication method oriented to a big data environment. The method comprises the following steps: establishing a system architecture and configuring safety parameters; generating a master key and a session key through the random number; segmenting the master key into a plurality of segments and storing the segments to different nodes; encrypting the session key by using the public key of the receiver, distributing the session key through the secure channel, and decrypting the session key by the receiver to obtain the session key; constructing a Merkle tree through an AES-GCM function, and introducing a network adaptation factor into an encryption process by considering that security requirements and network conditions of data encryption in different environments are different; and regularly updating a secret key, implementing an access control strategy, and recording a log to perform system audit so as to guarantee long-term security. According to the invention, the efficient AES-GCM encryption algorithm is used, so that the speed and security of data encryption are improved. By implementing the access control strategy, only the authorized user can access and operate the key, and the security of the system is improved.

The invention discloses a microcomputer host aging test method and system, and relates to the technical field of computer performance tests.The microcomputer host aging test method comprises the steps that to-be-tested equipment is connected to a test system, system standby test is conducted, and initial reference data are collected; constructing an aging prediction model and optimizing a model training strategy in combination with course learning and transfer learning; and performing a host preheating test and a high-load test by using AIDA64 based on a prediction result, synchronously operating a Heven Benchmark tool, and testing the graphic processing capability of the computer. The method combines a radial basis function neural network aging prediction model, carries out model training through curriculum learning and transfer learning, intelligently analyzes the CPU / GPU degradation trend, combines a quantum random number generator to generate a random load mode, simulates load fluctuation in an actual application scene, and improves the test trueness. In addition, a BIOS optimization strategy is provided to realize intelligent aging prediction and optimization regulation and control, so that the long-term stability and the service life of the microcomputer host are improved.

A hardware device (200) comprising an accelerator enclave (230) and a hardware security module (210), HSM, the HSM (210) including a first true random number generator, TRNG (211). The accelerator enclave (230) includes a second TRNG (231) and an accelerator (235). The HSM (210) is configured to: generate a first session key using the first TRNG (211); establish a first secure communication channel (CH1) with a cloud user using the first session key; receive an encrypted hardware configuration bitstream through the first secure communication channel (CH1); decrypt the hardware configuration bitstream; configure functional blocks in the at least one accelerator based on the hardware configuration bitstream. The accelerator enclave (230) is configured to: generate a second session key using the second TRNG (231); establish a second secure communication channel (CH2) with the cloud user using the second session key as encryption key; receive encrypted input data through the second secure communication channel (CH2); decrypt the encrypted input data; process the input data using the functional blocks.

The invention relates to the field of Bluetooth audio, in particular to a Bluetooth broadcast audio data sending and receiving method and device, and the method comprises the steps: building a BIS connection with a Bluetooth audio device; generating a random number of which the length is a preset first length; inputting an encryption party key and the random number into a preset Hash algorithm to generate a Hash value; according to the hash value and the random number, a random broadcast code is generated, and the length of the random broadcast code is a preset second length; generating and sending broadcast data according to the random broadcast code; receiving confirmation information fed back by the Bluetooth audio equipment according to the broadcast data; and according to the confirmation information, stopping sending the broadcast data, and sending Bluetooth broadcast audio data through the BIS connection. According to the invention, the key verification efficiency is improved, the user experience is improved, and the user interface design of the product is more visual.

The invention relates to the technical field of power data transmission, and discloses a power distribution Internet of Things terminal management method and system based on quantum cloud codes, and electronic equipment. The method comprises the steps of mixing original data through a random number generator to obtain a quantum cloud code seed, obtaining a quantum cloud code sequence through fragmentation encryption, forming a terminal equipment grouping key according to a preset rule, generating an equipment identity feature code in combination with operation state information, and establishing a data transmission channel according to the feature code. A secure communication link is formed through encryption and verification of a session key, operation data in the communication link is collected, a standardized data set is obtained through cleaning and normalization, output equipment behavior characteristics are mapped, operation authority is dynamically adjusted to construct a management system, regular snapshot and distributed backup are performed, and disaster recovery backup data are formed to establish a recovery strategy. According to the invention, security authentication, dynamic permission allocation and intelligent management of the terminal equipment are realized, and the security and management efficiency of the system are remarkably improved.

The invention discloses a true random number generator circuit based on 1T1R and a random number generation method thereof, belongs to the field of information security, and aims to solve the problem that in most true random number generator circuit designs based on volatile memristors, peripheral circuits generally comprise logic gates, triggers and clock signal generators, so that the reliability of the true random number generator circuit is greatly improved. The circuit comprises a memristor, a transistor and a T flip-flop, and the memristor, the transistor and the T flip-flop are connected with the memristor and the T flip-flop respectively. One end of the memristor is connected with an input voltage # imgabs0 #, and the other end of the memristor is connected in series to the drain electrode of the transistor through a first wire; the grid electrode of the transistor is connected to a fixed voltage # imgabs1 #, and the source electrode of the transistor is grounded; a second wire is led out from the first wire connected with the memristor and the transistor and is connected to the clock end of the T trigger, and the cross connection point of the first wire and the second wire is an output node # imgabs2.

The invention discloses a multi-entropy source dynamic fusion true random number hardware generation system, which comprises a multi-entropy source acquisition module used for acquiring original entropy signals generated by at least two heterogeneous physical entropy sources in parallel, the heterogeneous physical entropy sources comprising an entropy source based on semiconductor junction thermal noise and an entropy source based on ring oscillator phase jitter; the entropy preprocessing module is used for carrying out adaptive gain adjustment and frequency band filtering on each original entropy signal and converting the original entropy signals into digital bit streams; the entropy source quality evaluation module is used for receiving each digital bit stream in real time and calculating a real-time quality evaluation score of each entropy source based on statistical characteristics of the digital bit streams, i is an entropy source identifier, and t is a time sequence; according to the method, the high randomness, high safety and high reliability of true random number generation can be fundamentally improved.

Systems and techniques may generally be used for modifying quantum entangled bit communication. An example technique may include generating, at a first node in a computing network, a random number using a quantum derived seed as input to a random number generator; modifying a program using the random number while maintaining a function output of the program for a given input; receiving, at the first node from a second node, an input based on the random number; and executing the modified program at the first node using the input to obtain an output consistent with the program in an unmodified state.

The invention belongs to the technical field of federated learning and Internet of Vehicles crossing, and particularly relates to an asynchronous federated learning method for realizing lightweight privacy protection in Internet of Vehicles. Public key exchange is carried out between the station and the base station to calculate a shared secret key; the vehicle updates a local model by using the global model parameters, and performs training by using local data; random number generation is carried out based on the shared secret key and the training round, and the vehicle adds the random number to the gradient of the trained local model parameter to realize local model parameter encryption; the RSU forwards the vehicle information and the training round to a base station, the base station searches a shared secret key corresponding to the vehicle information, and the sum of random numbers is calculated in combination with the training round; the RSU carries out decryption aggregation on the encrypted gradient information based on the sum of the random numbers, and global model parameters are updated; and the RSU broadcasts the global model parameters, the vehicle updates the local model by using the global model parameters, and then the next round of training is continued until the training is finished.

The invention provides a Modbus protocol security enhancement method and system in a unicast communication scene, and relates to the technical field of industrial control networks. Comprising the following steps: sharing a first ciphertext and a second ciphertext between a master node and a slave node; the master node generates a first message authentication code according to the second ciphertext, a preset key and the first random number, and sends the first message to the slave node by using the target function code; the slave node authenticates the identity of the master node according to the first message authentication code, the first ciphertext, the preset key and the second random number; when the slave node successfully authenticates the identity of the master node, the slave node generates a second message authentication code according to the first ciphertext, the preset key and the second random number, and sends a second message to the master node by using the target function code; and the master node authenticates the identity of the slave node according to the second message authentication code, the second ciphertext, the preset key and the first random number. Therefore, the validity of the identities of the two communication parties can be ensured, and the integrity and confidentiality of the data in the transmission process are guaranteed.

A reproducible random number generation method can be executed in a calculator system with a security area, and comprises the following steps of: generating security data required for performing security operation in a security isolation area or a security chip from the inside or importing the security data from the outside; the security isolation area or the security chip sets encryption / decryption configuration and derivative function configuration according to the security operation, and encrypts the security data through a reproducible random number encryptor to obtain an encrypted data packet; exporting the encrypted data packet to the external storage of the security isolation region or the security chip; and when the security operation needs to be carried out, the corresponding encrypted data packet is imported into the security isolation region or the security chip, the security data is decrypted by a reproducible random number decryptor to obtain the security data, and then the security operation is carried out.

The invention relates to a true random number generation circuit and a chip, the true random number generation circuit comprises a clock signal generation module and a sampling module, the output end of the clock signal generation module is connected with one input end of the sampling module; the clock signal generation module is used for randomly switching the input current or voltage of the clock signal generation module according to a random signal so as to generate a jitter clock signal, and the sampling module is used for sampling a target clock signal according to the jitter clock signal so as to generate a true random number. The switching action of switching the input current or voltage can introduce jitter, and the input current or voltage is randomly switched through the random signal, so that the input time of the input current or voltage is random, the jitter degree of the generated jitter clock signal can be effectively increased, and the randomness of the generated true random number can be effectively enhanced; and the quality of the true random number can be effectively improved.

In one embodiment, an apparatus includes a first radio controller configured to communicate using a first protocol; and a pseudo-random number generator configured to generate a pseudo-random output value based on the input data value. The apparatus includes a processor configured to determine a preamble based on an output of the pseudo-random number generator, and process a data packet received using the first radio controller using the preamble to generate a processed data packet.

The invention provides a load control terminal program trusted loading method and electronic equipment, and the method comprises the steps: transmitting an operation instruction to a hardware security module through a central processing unit, negotiating a first session key with the hardware security module, and generating an equipment fingerprint through the hardware security module; intercepting a to-be-loaded program by utilizing a linux system kernel interception program calling entry, transmitting a signature original text of the to-be-loaded program to a hardware security module, and checking the signature original text by utilizing the hardware security module; if the signature original text is successfully verified, a random number generated by a true random number generator of the hardware security module is combined with the device fingerprint to generate a second session key; calling a communication interface between the kernel and the hardware security module, sending the sensitive data of the program to the hardware security module, encrypting the sensitive data by using a second session key, and mapping the encrypted sensitive data to an independent address space; and when the operation of the program is finished or interrupted, erasing the second session key and the random number by using the hardware security module.

The invention discloses a quantum random number secure generation method and device based on quantum entanglement and a medium, and relates to the technical field of quantum information. According to the method, quantum entanglement and quantum teleportation protocols are combined, and the VN algorithm is introduced to improve the security of the quantum random number generation process. According to the method, the randomness, the security and the quantum attack resistance of the random number generator can be improved by utilizing the unpredictability of the quantum state and the non-locality of quantum entanglement, so that higher information security requirements are met.

The embodiment of the invention provides a transmission instance generation method, communication equipment, a communication system, a computer storage medium and a computer program product. The transmission instance generation method comprises the following steps: determining assigned nodes and non-assigned nodes in a leaf node set of the current depth of a first random number spanning tree, and when the current depth is expanded to the next depth, assigning all child nodes of the assigned nodes, at least one random value, corresponding to the second random number generation tree, of the next depth is adopted to carry out value assignment on part of child nodes in the non-assigned nodes, and the first random number generation tree and the second random number generation tree have the same fork tree structure; updating the leaf node set of the next depth to the leaf node set of the current depth; and when the current depth reaches the preset depth of the first random number generation tree, outputting a corresponding random value from the assigned node in the leaf node set of the current depth as decoding information of the transmission instance.

The invention discloses a bidirectional remote encryption multi-system interactive communication authentication method and an operation platform. The method specifically comprises the following steps: receiving a first ciphertext sent by Internet of Things equipment; decrypting the first ciphertext by using a private key of the operation platform to obtain a decryption random number; a platform random number is generated, the platform random number and the decryption random number are combined and then encrypted by using the public key of the Internet of Things equipment, and a second ciphertext is generated; sending the second ciphertext to the Internet of Things equipment, and receiving a third ciphertext sent by the Internet of Things equipment; generating a platform session key according to the decryption random number and the platform random number, decrypting the third ciphertext by using the platform session key to obtain a second decryption result, and verifying the second decryption result; and under the condition that the verification is passed, transmitting data to the Internet of Things equipment.

The invention discloses a financial data encryption and decryption method and system, and the method comprises the steps: determining the type and range of financial data according to a business demand, obtaining related financial data based on a financial institution according to the data type and range, and carrying out the data preprocessing; partitioning the preprocessed data, and encrypting the partitioned data based on an encryption algorithm; obtaining a random number generator, setting parameters for the generator, and obtaining an encryption key based on a function of the random number generator according to the set random number generator; and decrypting the financial data based on a decryption algorithm according to the encryption key and the to-be-decrypted data block. According to the method, large-volume data can be quickly decomposed into small-volume data, and the small-volume data can be quickly encrypted, so that the encryption efficiency and the encryption success rate are improved, and the security and the data quality of financial data are ensured.