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198
resultados
Última actualización
02/08/2026 [07:32:00]
Resumen de: US20260222186A1
A first quantum key delivery device (10) comprises: a light source (11) that outputs light; a branch unit that causes light output from the light source (11) to branch to first light and second light; a random number generation unit (13) that generates a random number on the basis of the first light caused to branch by the branch unit (12); a modulation unit (14) that modulates the second light caused to branch by the branch unit (12) on the basis of the random number generated by the random number generation unit (13); and an optical transmission unit (15) that transmits the second light modulated by the modulation unit (14) as a quantum optical signal to another quantum key delivery device.
Resumen de: US20260222228A1
A method for optimizing the execution of the generation of a Crystals-Dilithium post-quantum digital signature σ=({tilde over (c)}, z, h) of a message M with a secret key sk=(ρ, K, tr, s1, s2, t0) where ρ, K, tr are 256 bits binary values, s1 and s2 are vectors of length l, respectively k, of elements of the ring Rq whose coefficients are lower than a first predetermined value η, and t0 is a polynomial vector of length k with k, l, n and q integers. Other aspects are described herein.
Resumen de: US20260220242A1
A method for enhancing detection of fraudulent authentication data includes receiving, by an electronic device, data during an authentication transaction, computing a feature vector from the received data, and normalizing the feature vector. The method also includes encoding the normalized feature vector into qubits, expanding, using at least one quantum algorithm, the normalized feature vector into a high-dimensional space, and detecting in the high-dimensional space anomalies indicative of fraud based on the qubits. Furthermore, the method includes calculating, based on the detected anomalies, a confidence score reflecting a likelihood that the received data is genuine and comparing the confidence score against a threshold value. In response to determining the confidence score fails to satisfy the threshold value, the method determines that the received data requires secondary authentication.
Resumen de: US20260222206A1
A quantum token generation method using computing system comprising a quantum computer in communication with a classical computer is provided. The method comprising the steps of: generating, using the classical computer, a unique identifier comprising f portions; determining, using the classical computer, a secret-key quantum circuit comprising n qubits; generating, using the classical computer and the quantum computer, a classical description of the unique identifier using the secret-key quantum circuit; wherein the classical description comprises n portions; generating, using an n-qubit quantum circuit of the quantum computer, a quantum state based on the classical description of the unique identifier; and outputting, using the classical computer, a quantum token, the quantum token comprising: the unique identifier; and the quantum state.
Resumen de: US20260222187A1
0000 The disclosed systems and methods assist transmitted content in reaching a receiver, even if a network is subjected to sophisticated tampering. A device for a communication network including a plurality of nodes and a plurality of paths connecting a source node, which is a transmission source of information, and a terminal node, which is a destination of the information. A segmentation instruction unit being configured to instruct the source node to disperse the information into a plurality of pieces of random number data, to encode the random number data by an error correction code to generate codewords, and to order the codewords from the beginning and divide the codewords into a plurality of segments, the first transmission instruction unit being configured to instruct the source node to transmit OTP-encrypted data of the plurality of segments through the plurality of paths.
Resumen de: US20260222185A1
0000 A method and an apparatus for receiving quantum optical communication while reducing receiver, increasing maximum detection speed, or both. The disclosure comprises transforming the polarization encoded output of a QKD system to time-bin encoded output at the detector level. The disclosure also comprises a method and an apparatus using a quantum optical switch and several SPD units to increase communication speed.
Resumen de: WO2025062472A1
Data (D) transmission system (10) via satellite (11), comprising at least one satellite station (40) disposed on a respective satellite (11) with which a first transmission station (20) and a second transmission station (30) are operatively connected, during use, wherein at least one of either the first (20) or the second station (30) is disposed, during use, on a mobile means of transport (12), the other being disposed on a respective mobile means of transport (12) or on a fixed point on land. The stations (20, 30, 40) comprise, respectively, at least an optical assembly (22, 32, 42) configured to transmit and/or receive one or more optical signals (SO) comprising at least a first type of optical signal (SOI) to allow the quantum distribution of encryption keys, and a transmission assembly (21, 31, 41) configured to transmit and receive one or more radio frequency signals (SR) containing data (D), wherein said optical assemblies (22, 32, 42) and said radio frequency transmission assemblies (21, 31, 41) are configured to transmit and/or receive respective pointing signals to achieve an alignment between the stations (20, 30, 40).
Resumen de: EP4783514A1
This application discloses a quantum key distribution method, apparatus, and system, relating to the field of network technologies. A first quantum device generates a modulated optical signal that carries quantum information and classical information. Both the classical information and the quantum information are modulated on at least one polarization of the modulated optical signal, the modulated optical signal includes a plurality of subcarriers in different frequency segments, the classical information and the quantum information are on different subcarriers among the plurality of subcarriers, and the classical information includes quantum key agreement information. The first quantum device sends the modulated optical signal to a second quantum device via an optical fiber link. By modulating the quantum information and the classical information on the same polarization of the optical signal, a system achieves a high capacity. The quantum information and the classical information are modulated on subcarriers in different frequency segments within the optical signal, so that respective modulation accuracy requirements of a classical signal and a quantum signal can be satisfied. Reusing a set of devices to transmit both the quantum information and the classical information reduces hardware costs.
Resumen de: EP4783040A1
0001 A method for enhancing detection of fraudulent authentication data includes receiving, by an electronic device, data during an authentication transaction, computing a feature vector from the received data, and normalizing the feature vector. The method also includes encoding the normalized feature vector into qubits, expanding, using at least one quantum algorithm, the normalized feature vector into a high-dimensional space, and detecting in the high-dimensional space anomalies indicative of fraud based on the qubits. Furthermore, the method includes calculating, based on the detected anomalies, a confidence score reflecting a likelihood that the received data is genuine and comparing the confidence score against a threshold value. In response to determining the confidence score fails to satisfy the threshold value, the method determines that the received data requires secondary authentication.
Resumen de: WO2025012609A1
A method of key amplification by a first system and a second system of a network having a key to be amplified, a shared secret, a shared first system identity, a shared second system identity, a shared first key and a shared second key, comprising: (i) each system generating a new random number and creating a combination of the new random number and the shared first key; (ii) each system using a shared predetermined process to generate a shared nonce derived from at least each system identity; (iii) each system using a shared predetermined process to generate a shared key and using the shared key to encrypt the combination with the shared nonce; (iv) each system receiving the encrypted combination from the other system; (v) each system using the shared key to decrypt the encrypted combination with the shared nonce to obtain the combination; (vi) each system generating a key of a set of keys which is a function of the combination of the first system, the combination of the second system, the shared second key and the shared secret, and (vii) each system repeating steps (i) to (vi) a predetermined number of times to generate further keys of the set of keys which set of keys comprise an amplification of the key to be amplified. A system for key amplification is further provided.
Resumen de: US20260213950A1
0000 A system generates attested decision provenance records for artificial intelligence models. The AI model executes within a hardware-isolated enclave that prevents access or modification by external software. Before each execution, the system verifies that the correct model version is present by comparing a cryptographic model fingerprint and checking a hardware-anchored monotonic counter that prevents rollback to earlier versions. If a mismatch or rollback attempt occurs, execution is halted and the event is recorded. For each decision, the system produces a signed provenance token containing seven fields: a model hash, an input hash, a decision hash, an enclave measurement, a hardware timestamp, a version counter value, and an attestation signature covering all preceding fields. The token enables independent verification of the decision without revealing underlying data. Optional extensions include fairness evaluation, selective encryption, distributed fallback execution, post-quantum signatures, and automated compliance package generation.
Resumen de: US20260213931A1
0000 A quantum key distribution method for quantum distribution of a key, referred to as K
Resumen de: US20260213955A1
0000 Prior AI governance systems operate as isolated domain silos and cannot share hardware-attested evidence across domains, generate simultaneous multi-framework regulatory proofs, or allow regulators to independently verify compliance. The present invention introduces a Universal AI Governance Fabric, a horizontal platform that federates domain-specific Trusted Execution Environment (TEE) systems under a single cryptographically unified trust state anchored to silicon root-of-trust keys inaccessible to software. A heterogeneous TEE orchestration layer verifies attestations across multiple enclave technologies including Intel SGX, AMD SEV-SNP, Intel TDX, ARM TrustZone, and major confidential computing environments. When a threshold violation occurs, an atomic cross-domain transition orchestrator simultaneously destroys baseline session keys, increments hardware monotonic counters, and activates IOMMU isolation across participating systems. A Unified Regulatory Verification Engine generates jurisdiction-specific evidence packs for major regulatory frameworks from a single zero-knowledge proof computation, enabling independent regulator verification and providing a secure, cross-domain AI governance infrastructure.
Resumen de: US20260213854A1
0000 The present invention relates to a clock synchronization method comprising the steps of determining (S101) whether the emitter and the receiver are within acceptable frequency range difference, calculating (S102) a drift difference accumulated over a chosen time and obtaining a time compensation based on it, applying (S103) a compensation either to the clock phase shift or to the external frequency generator, and continuously (S104) tracking a frequency difference change between the emitter and the receiver by repeating the above steps.
Resumen de: US20260205207A1
The present disclosure provides a method of performing user authentication in a quantum communication system. More specifically, the method includes transmitting an information sequence including at least one data block on the quantum channel, wherein based on a preshared key and at least one key generated based on the preshared key, a checking sequence for a quantum bit error rate (QBER) estimation is determined from each of the at least one data block, wherein the preshared key is used to select a location of a sequence included in the at least one data block; performing the user authentication based on a portion of the checking sequence; and performing a QBER estimation based on a result of the user authentication and a remaining checking sequence excluding the portion of the checking sequence. A user authentication error rate and a QBER estimation error rate are used for the QBER estimation.
Resumen de: US20260203628A1
0000 Methods and apparatus for communicating information among client devices involve encoding information in photon states at client devices, sending the photon states to a hub device, loading the photon states into quantum systems of the hub device and comparing the loaded photon states, e.g. by a parity measurement. The hub may provide quantum entanglement that may be consumed in making parity measurements. Applications include quantum key distribution.
Resumen de: US20260205280A1
A post-quantum encryption system utilizes cymatics patterns formed in a liquid medium (102) for high-entropy cryptographic key generation. The system includes a container (101) holding the liquid medium, and one or more vibration sources (105) configured to generate acoustic waves that induce dynamic ripple formations. A temperature control unit (106) adjusts the medium's thermal state to modulate waveform complexity. Sensors (107), including high-speed imaging units (108) and interferometric sensors (109), capture wave patterns in real-time. A signal processing module extracts parameters such as amplitude, wavelength, and frequency, which are converted into a cryptographic key via a secure interface. The key may be used in symmetric, asymmetric, or post-quantum algorithms. Optionally, a quantum key distribution (QKD) module (127) transmits the generated key securely. The invention leverages physical randomness and acoustic-fluid dynamics to provide scalable, tamper-resistant encryption suitable for next-generation security infrastructure.
Resumen de: US20260205281A1
0000 The arrangements disclosed herein relate to systems, apparatus, methods, and non-transitory computer readable media for Quantum for DUKPT (Q-DUKPT), where an Initialization Key (IK) using a Quantum Random Number Generator (QRNG). An identifier for a device is generated by performing XOR on a Base Derivation Key (BDK) and the IK. The device derives a key for each transaction to encrypt original data using IK or a previous key. The host receives from the device the encrypted original, the identifier, and a counter that indicates a current number of transactions. The host runs the same derive function used by the device for a number of iterations equal to the current number of transactions with IK as the initial input, to derive the key used to by the device to encrypt the original data.
Resumen de: US20260205540A1
A highly secure and adaptive Interactive Voice Response (IVR) system and method that integrates artificial intelligence, Quantum Key Distribution (QKD), and dynamic fraud prevention is disclosed herein. An Artificial Intelligence (AI) component may continuously analyze caller behavior, including speech patterns, emotional indicators, and potential scripted dialogue, to detect anomalies in real-time. The system and method may adapt IVR pathways based on these analyses, directing suspicious calls into secure environments for further investigation. Quantum encryption may safeguard all communication channels, ensuring that data transmission remains secure and tamper-evident, and electronic countermeasures may disrupt malicious actors non-destructively.
Resumen de: DE102025101067A1
Die vorliegende Offenbarung betrifft ein Verfahren und ein System zur Simulation eines Quantenkommunikationsvorgangs. Das Verfahren weist folgende Schritte auf: Bereitstellen, in einer Datenverarbeitungseinheit (10), von Quantenkommunikationsinformationen für mindestens einen zu simulierenden Quantenkommunikationsvorgang zwischen mindestens einer ersten Quantenkommunikationsvorrichtung (30), einer zweiten Quantenkommunikationsvorrichtung (31) und einer Abhörvorrichtung (33) über mindestens einen Quantenkanal (32); Bestimmen, in der Datenverarbeitungseinheit (10) und aus den Quantenkommunikationsinformationen, von Steuerungsdaten für einen Quantenprozessor (14), in dem Quantenoperationen auf Quantenteilchen angewendet werden, die Ionen oder neutrale Atome sind und die innerhalb mehrerer Operationsbereiche (21) räumlich kontrollierbar sind; und Simulieren des Quantenkommunikationsvorgangs in dem Quantenprozessor (14) mittels der Steuerungsdaten. Hierbei ist einem Quantenbit des Quantenkommunikationsvorgangs jeweils eines der Quantenteilchen zugeordnet. Kommunikationsoperationen des Quantenkommunikationsvorgangs entsprechen jeweils mindestens einer der Quantenoperationen, wobei die Quantenoperationen mindestens eine erste Quantenoperation für die erste Quantenkommunikationsvorrichtung (30), mindestens eine zweite Quantenoperation für die zweite Quantenkommunikationsvorrichtung (31) und mindestens eine dritte Quantenoperation für die Abhörvorrichtung (33) umfassen. Des W
Resumen de: WO2026149671A1
A continuous-variable Quantum Key Distribution system is provided, comprising a transmitter and a receiver. The receiver comprises a detection part and a lossy optical element arranged between the transmitter and the detection part. The transmitter modulates a quantum signal and sends it to the receiver through a quantum channel. The lossy optical element is configured to: distribute N input modulated quantum signals into M output modulated quantum signals, with N, M ≥ 1, wherein one of the N input signals is associated to the transmitter and the other N-1 signals are vacuum signals; and provide to the detection part one of the M output modulated quantum signals. The receiver detects, with the detection part, one or more quadrature components of the one modulated quantum signal, and performs a post-processing procedure with the transmitter based on the detected quadrature component(s) and an amount of optical loss of the lossy optical element.
Resumen de: US20260205309A1
Existing DAO governance systems operate entirely in software, allowing majority voters to execute proposals regardless of risk controls, enabling privileged actors to forge compliance logs, and forcing regulators to rely on unverifiable system reports. The present invention addresses these limitations by executing governance-critical logic within Trusted Execution Environments (TEEs), hardware-isolated processor regions inaccessible to operating systems, cloud providers, and blockchain nodes. The architecture introduces five elements: a Multi-TEE Quorum Verification Layer requiring agreement from three independent TEEs before authorization; an On-Chain Attestation Registry preventing counterfeit governance engines; a Regulatory Verification Network enabling independent compliance validation; a Post-Quantum Attestation Layer securing evidence for long-term retention; and Automated Treasury Safeguards including hardware-enforced freezes, circuit breakers, and insurance triggers. When violations are confirmed by quorum, cryptographic keys are destroyed, hardware counters advance, and network isolation activates, making non-compliant execution physically impossible while producing zero-knowledge proofs usable across multiple regulatory frameworks.
Resumen de: US20260205302A1
Every major DAO governance failure traces to a common root cause: governance logic, voting, and treasury access reside in software that adversaries can reach. The disclosed invention provides a hardware-anchored DAO governance architecture defeating five adversary classes. A supply-chain attestation layer verifies firmware integrity against a public transparency log at node initialization. A Silicon Root-of-Trust Anchor Layer binds governance to processor-embedded cryptographic keys. A Heterogeneous TEE Orchestration Layer enforces Byzantine fault-tolerant canonical quorum through threshold BLS signatures across independent hardware architecture families. An Atomic Governance Transition Engine executes indivisible state changes: record incorporation, key destruction, counter advancement, and IOMMU treasury isolation. A Quantum-Resistant Governance Key Lifecycle Engine performs CRYSTALS-Kyber (ML-KEM, FIPS 203) key rotation with cryptographic agility. A Cross-Chain Governance Attestation Bridge publishes TEE-signed proofs to multiple blockchains. A Deterministic Governance Replay Engine reconstructs governance decisions in isolated sandboxes. An Automated Governance Incident Response Engine and Governance Regulator Verification Network provide hardware-enforced, independently auditable compliance enforcement.
Resumen de: EP4776563A1
In a quantum cryptography communication control device according to one arrangement, a collection unit collects link information of a link for which a local key is generated by quantum key distribution and a global key guarantee amount of each of a plurality of application pairs executing cryptography communication using a global key. A calculation unit calculates a link cost used for selecting a relay route of the global key based on the link information. A guarantee amount calculation unit calculates a local key guarantee amount allocated to the link for relaying the global key of each of the plurality of application pairs such that the guaranteed amounts of global keys for the plurality of application pairs are simultaneously satisfied. The selection unit selects the relay route of the global key based on the link cost and the local key guarantee amount.
Nº publicación: EP4774864A1 15/07/2026
Solicitante:
IQM FINLAND OY [FI]
IQM Finland Oy
Resumen de: WO2025052024A1
The invention relates to a quantum-mechanical encryption key stretching method. The method comprising encoding an input key into a set of quantum mechanical states, scrambling the encoded quantum mechanical states into a larger number of quantum mechanical states and deriving an enhanced encryption key from the larger number of5 quantum mechanical states. The invention also includes methods of encrypting and decrypting data using the enhanced encryption key and method of deriving the enhanced key. A further aspect of the invention relates to a method for encrypting data by encoding the data in a set of quantum mechanical states and performing a scrambling operation on those quantum mechanical states.
BOPI
Sede Electrónica
