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一种基于素数谱流形拓扑约束的量子计算与量子传感统一硬件架构及系统

Resumen de: CN122965712A

本发明公开了一种基于素数谱流形拓扑约束的量子计算与量子传感统一硬件架构及系统，属于量子计算与量子传感技术领域。本发明将量子比特阵列映射为素数谱流形上的涡旋分布，利用总拓扑荷归零条件同时实现量子比特的拓扑相干保护和量子传感信号的高灵敏度读取。量子计算模式下，涡旋的受控路径运动实现量子门操作；量子传感模式下，涡旋对外界扰动的拓扑荷响应实现高灵敏度测量。本发明为量子计算和量子传感提供统一的拓扑保护硬件平台，支持计算‑传感混合模式，适用于量子增强雷达、量子磁力计、量子计算加速等场景。

基于量子计算原理的教学游戏系统和教学交互控制方法

Resumen de: CN122967511A

一种教学游戏系统，包括：迷宫生成模块配置为生成包括墙体和资源项的迷宫矩阵，角色状态管理模块配置为控制角色在常规态与叠加态之间动态切换；主动线路构建模块，配置为响应于角色移动至目标量子态所在位置的第一触发事件生成部分量子门缺失的待补充量子线路，接收用户输入以构建第一目标量子线路；被动线路构建模块配置为响应于角色的移动次数耗尽的第二触发事件，锁止角色的移动并生成空白量子线路，接收用户输入以构建第二目标量子线路；线路评估与执行模块配置为对第一目标量子线路或第二目标量子线路进行有效性评估，并根据评估结果执行调整操作。如此，将量子计算相关概念转化为游戏内容，避免因前置知识不足导致的入门障碍。

一种中性原子全连接量子计算系统

Resumen de: CN122965709A

本发明涉及量子计算技术领域，提供了一种中性原子全连接量子计算系统，包括：双层交叉芯片结构与静态中性原子阵列；双层交叉芯片结构包括相对叠放的第一芯片与第二芯片，第一芯片包括沿着第一方向延伸的第一微波谐振腔阵列，第二芯片包括沿着第二方向延伸的第二微波谐振腔阵列，第一方向与第二方向相交；静态中性原子阵列设置于第一芯片与第二芯片之间的缝隙中，静态中性原子阵列中的每一个中性原子位于第一微波谐振腔阵列与第二微波谐振腔阵列的一个交叉作用区域内，以形成二维可寻址的腔‑原子耦合网络。上述技术方案从根本上消除了机械重排带来的毫秒级延迟与原子丢失风险，为大规模容错量子计算提供了高时钟频率和高阵列完整性的硬件基础。

一种汉明权重计算与对称布尔函数的浅层量子线路构建方法、系统、终端及存储介质

Resumen de: CN122965710A

本发明涉及量子计算技术领域，公开了一种汉明权重计算与对称布尔函数的浅层量子线路构建方法、系统、终端及存储介质。所述方法包括：将输入寄存器划分为多个数据块；对各数据块分别进行局部汉明权重计算；将各局部汉明权重展开为多个带有固定二进制权重的量子比特；将所有带有固定二进制权重的量子比特输入可逆加权求和模块进行求和计算，得到全局汉明权重并写入重量寄存器；在重量寄存器上计算由全局汉明权重决定的对称布尔函数值，并写入目标量子比特；反向执行前述各步骤中的量子门操作，清除中间寄存器信息，保持输入寄存器状态不变。本发明在全连接和二维最近邻硬件下均能降低线路深度和辅助量子比特开销。

一种量子计算和脑机接口协同的大模型自愈系统和方法

Resumen de: CN122965716A

本发明涉及大模型运维与量子计算技术领域，尤其涉及一种量子计算和脑机接口协同的大模型自愈系统和方法，所述系统包括量子纠错模块、脑机接口模块、多模态决策模块和智能执行模块。量子纠错模块将故障特征编码为量子态故障特征；脑机接口模块采集操作者神经信号并经量子纠错处理后生成修复指令；多模态决策模块通过量子态映射、量子纠缠增强和量子相位对齐融合故障特征与修复指令，生成修复策略；智能执行模块执行修复操作并反馈验证。本发明将故障特征与修复意图统一于量子态空间进行融合决策，借助脑机接口引入操作者领域经验，结合量子纠错提升抗噪能力，有效提高大模型故障定位准确率和修复成功率，显著缩短故障恢复时间。

多物理场耦合量子检测仿真平台及方法

Resumen de: CN122965317A

本发明涉及计算仿真技术与量子无损检测交叉领域，特别涉及一种多物理场耦合量子检测仿真平台及一种多物理场耦合量子检测仿真方法。包括：输入层，用于接收待检测工件的仿真模型、材料牌号、缺陷几何参数以及环境变量；耦合模型层，用于建立量子力学、电磁学与固体力学之间的多物理场耦合数学模型，构造量子态与经典物理场之间的强耦合控制方程；计算引擎层，基于GPU加速的异构并行计算架构，用于对所述强耦合控制方程进行数值求解；数据管理层，集成材料数据库及分布式文件存储系统，用于存储管理材料本征参数、仿真数据及实验数据；验证层。通过底层算法创新和硬件架构优化，解决了现有技术"算不准"和"算得慢"的两大痛点。

一种基于耗散动力学模拟的化学基态能量求解方法及装置

Resumen de: CN122965713A

本发明公开了一种基于耗散动力学模拟的化学基态能量求解方法及装置，该方法包括：构建仅包含单个跃迁算符的林德布拉德耗散生成器，跃迁算符被配置为强制量子态仅从高能级向低能级跃迁；引入单一辅助量子比特，将跃迁算符对应的非幺正耗散演化映射为联合主系统与辅助量子比特上的幺正演化，并对辅助量子比特执行偏迹操作以构建耗散量子信道；将耗散量子信道与系统哈密顿量驱动的相干演化组合，在每一时间步长内形成单次完整演化映射；迭代执行单次完整演化映射直至系统收敛，测量并输出基态能量。本发明通过构建单向耗散林德布拉德生成器并引入单辅助量子比特，使系统从任意初始态确定性收敛至基态，降低量子资源需求，实现高精度基态能量求解。

基于量子启发式深度学习的设备缺陷检测方法及系统

Resumen de: CN122966579A

本发明涉及量子计算和图像处理融合技术领域，提出了一种基于量子启发式深度学习的设备缺陷检测方法及系统，通过对电力设备多模态图像进行空间拓扑序列化，保持图像转换过程中的像素空间关联；通过背景抑制型角度编码将像素信息映射为量子态信息，降低复杂背景干扰。利用QKAN‑LSTM模型进行量子相干融合、量子变分非线性映射及时序状态更新，增强多模态特征关联，提取隐空间量子态特征。随后，通过量子解码器生成增强图像，并利用缺陷识别模型完成缺陷分类与定位，从而提高复杂场景下缺陷识别与定位的准确性，为电力设备智能运维提供数据支撑。

用户选择方法、装置、基站、存储介质及程序产品

Resumen de: CN122969612A

本申请提供一种用户选择方法、装置、基站、存储介质及程序产品，涉及无线技术领域，该方法包括：获取与多输入多输出MIMO系统的用户选择相关的第一信息；根据所述第一信息和MIMO系统的可用资源量，构建加权最大独立集问题；利用量子虚时演化算法求解所述加权最大独立集问题，获得选择的目标用户。本申请的方案解决了现有的经典方法/经典‑量子混合方法选择用户的精度和速度较低的问题，相对于利用量子梯度下降的方式选择用户，本申请的方案对量子硬件和量子资源的需求较低。

一种时域高斯玻色采样系统及方法

Resumen de: CN122965714A

本发明属于量子计算技术领域，具体涉及到一种时域高斯玻色采样系统及方法。系统包括：量子光源模块，用于产生脉冲单模压缩态；量子干涉模块，用于在时间模式维度上实现相干耦合与酉矩阵演化；光子数探测与计数模块，用于在预设时间窗口内获取多光子符合计数采样数据；测控与数据处理模块，用于对图数据进行编码、对调制器进行控制、对环路进行稳相、对采样数据进行预处理和后处理并输出任务结果。本系统集成量子光源、干涉、探测计数及测控处理模块，通过时域复用架构与量子‑经典混合计算，实现图论问题的量子加速求解。

一种约瑟夫森结的制备方法和基于约瑟夫森结的量子器件

Resumen de: CN122971182A

本申请公开了一种约瑟夫森结的制备方法和基于约瑟夫森结的量子器件，属于量子芯片制备技术领域。约瑟夫森结的制备方法包括：刻蚀形成于基底的表面的超导金属层，以形成隔开的第一薄膜和第二薄膜，以及位于二者之间、并与第一薄膜一体成型的所述底电极；在底电极背离基底的表面制备势垒层，并制备一端与势垒层重叠、另一端与第二薄膜接触式电连接的所述顶电极。通过上述方式，本发明中的第一薄膜和第二薄膜可再加工形成其他指定的量子器件，使得约瑟夫森结与指定的量子器件一体成型或接触式电连接，从而有更稳定的连接性能。

一种拓扑绝缘体表面态自旋-动量锁定的主动调控方法及其装置

Resumen de: CN122965715A

本发明公开了一种拓扑绝缘体表面态自旋‑动量锁定的主动调控方法及其装置。所述装置包括具有非平凡拓扑表面态的拓扑绝缘体材料层、投影角调制系统（通过光场、电场、磁场、应力场或微波场调制投影角θ）、自旋‑动量锁定监测系统和反馈控制系统。所述方法通过外部场调制投影角θ，使拓扑陈数C发生量子化变化，改变表面态的狄拉克锥色散关系和自旋纹理，实现对自旋‑动量锁定强度（可调±30%至±60%）、方向（可调±90°至±180°）和空间分布的可逆、可编程调控。本发明还提供基于稳定性判据 γ_SML θ̇² ≥ |1‑k_SML||∂C/∂θ||θ̇|·h/2 的闭环反馈控制。本发明首次将自旋‑动量锁定从固定属性提升为可主动调控的动态变量，可应用于低功耗自旋电子器件、拓扑量子计算、自旋逻辑电路、磁随机存储器、太赫兹自旋发射器、自旋神经形态计算等领域。

一种汉明权重计算及对称布尔函数的常数深度量子线路构造方法、系统、终端及存储介质

Resumen de: CN122965711A

本发明涉及量子计算技术领域，公开了一种汉明权重计算及对称布尔函数的常数深度量子线路构造方法、系统、终端及存储介质。所述方法包括：将输入比特串对应的量子态加载至输入寄存器中的各输入量子比特；并获得带权输入集合；对带权输入集合执行测量式扇出操作，得到并行扇出分支结构；在并行扇出分支结构的各并行计算分支中执行加权计数操作，得到中间编码结果；对中间编码结果执行解码操作，得到二进制形式的加权计数结果，将加权计数结果作为汉明权重写入权重寄存器；根据中途测量结果和经典反馈信息执行修正操作，清除中间寄存器中的临时信息。本发明实现了常数深度或常数级深度的汉明权重计算，同时辅助量子比特开销得到有效控制。

基于混合量子神经网络的无人机射频指纹识别方法及系统

Resumen de: CN122964697A

本发明属于低空无人机射频信号识别技术领域，具体公开了基于混合量子神经网络的无人机射频指纹识别方法，包括获取无人机通信过程中的原始复数I/Q采样序列，经定长截取、均方根幅值归一化、短时傅里叶变换、频率轴中心化、功率谱对数化和频段裁剪形成射频时频特征图；利用残差卷积结构提取并嵌入低维特征，经归一化和量子幅度编码写入量子态，再由包含参数化旋转门和环形纠缠门的变分量子线路增强并测量，根据测量概率向量输出无人机类别。本发明通过均方根幅值归一化降低幅值尺度变化对射频指纹特征的影响，并通过残差卷积结构和变分量子线路增强射频时频特征的提取与非线性表达，从而提高低信噪比及采集条件变化时无人机射频指纹识别的稳定性。

APPARATUSES, COMPUTER-IMPLEMENTED METHODS, AND COMPUTER PROGRAM PRODUCTS FOR TWO-DIMENSIONAL QUANTUM PROGRAM COMPILATION

Resumen de: WO2026221598A2

Various embodiments of the disclosure provide apparatuses, systems, and computer program products for instruction compilation for execution in a 2D quantum environment. Some embodiments include identifying a set of starting positions corresponding to a set of qubit pairs for a set of qubits, generating a set of target row assignments based at least in part on the set of starting positions, generating a set of target column assignments comprising a target column assignment for each qubit pair in the set of qubit pairs, the set of target column assignments generated by applying a one- dimensional sorting algorithm to each row of the set of target row assignments, and generating at least one movement instruction based at least in part on the first set of swap-or-not operations and the second set of swap-or-not operations.

INSERTING AND CALIBRATING COMPENSATION PHASES IN QUANTUM CIRCUITS

Resumen de: US20260330274A1

0000 Methods, systems, and apparatus for inserting and calibrating compensation operations in quantum circuits. One or more operations in a quantum circuit that each violate a generalized commutation relation with a compensation operation are identified, where the compensation operation counteracts uncontrolled qubit rotations. The compensation operation is inserted directly before each of the one or more operations in the quantum circuit that violate the commutation relation with the compensation operation. Rotation angles of the compensation operations inserted into the quantum circuit are then calibrated. Rotation angles in a group of rotation angles that have non-overlapping sets of detectors can be calibrated in parallel.

SUPERCONDUCTING LOGIC PROGRAMMING TECHNIQUES FOR QUBIT CONTROL

Resumen de: US20260332147A1

0000 Techniques are described for operating a superconducting data distribution circuit to load digital values into programmable components of a qubit controller. According to some embodiments, the superconducting data distribution circuit may be configured to receive digital data from a digital signal line and demultiplex portions of the digital bitstream, then supply the demultiplexed portions of the bitstream to the programmable components of the qubit controller. In some embodiments, the superconducting data distribution circuit may be configured to load data from the bitstream into a plurality of logic components (e.g., flip flops), then to synchronously unload the data from the logic components to the programmable components of the qubit controller.

System and method for orchestrating and securing microservices interactions utilizing quantum-based optimization techniques

Resumen de: US20260330279A1

A system includes a memory and a quantum processor operably coupled to the memory and configured to receive, from a computing device, a request to complete execution of an executable interaction with the software application. For each of the plurality of microservices, the quantum processor is configured to execute a quantum particle swarm optimization (QPSO) algorithm configured to generate and associate with first and second computing systems an autonomous compute agent. The autonomous compute agent is configured to execute directional movements over a plurality of communication paths associated with the first and second computing systems to identify a best communication path. The quantum processor is configured to route, using the identified best communication path, the request to the indicated one of the first computing system or the second computing system and instruct the indicated one of the first computing system or the second computing system to execute the associated microservice.

APPARATUS AND METHOD FOR ENHANCING SECURITY USING BLIND QUANTUM COMPUTING

Resumen de: US20260332385A1

0000 Disclosed herein is an apparatus and method for enhancing security using blind quantum computing. The apparatus performs an operation of a plaintext-state quantum circuit containing predefined information in a first quantum circuit to which a blind quantum computing technique is applied, performs a quantum homomorphic encryption operation on the output value of the first quantum circuit through a second quantum circuit connected to the output end of the first quantum circuit, performs an operation of a decryption operation circuit for the output value of the second quantum circuit and an operation of the plaintext-state quantum circuit in a third quantum circuit to which the blind quantum computing technique is applied, and outputs a value obtained by performing a quantum homomorphic encryption operation on the output value of the third quantum circuit through a fourth quantum circuit connected to the output end of the third quantum circuit.

A QUANTUM COMPUTING, QUANTUM SENSING, AND ROTATIONAL CORRELATION ERROR-CORRECTION SYSTEM

Resumen de: WO2026220386A1

The present invention relates to a quantum rotational correlation error-correction system comprising a quantum Qubit array (1) including a plurality of entangled Qubits configured to maintain coherent quantum states, an entanglement generation module (2) configured to establish correlated quantum states among the plurality of Qubits, and a rotational phase encoding module (3) configured to encode physical or computational variables into rotational phase transformations associated with multiple coordinate-plane projections. The system further comprises a geometric correlation oracle (4) configured to continuously evaluate invariant rotational relationships among the entangled Qubits based on correlated angular phase conditions corresponding to multiple orthogonal rotational planes, wherein deviations from the rotational correlation condition indicate decoherence, phase drift, environmental noise, or quantum-state disturbance. The invention additionally comprises a quantum error detection module (5) configured to identify rotational inconsistencies within the entangled Qubit network, and an adaptive quantum correction controller (6) configured to apply corrective quantum gate operations including rotational compensation transformations to restore coherence and stabilize the entangled quantum state while minimizing destructive quantum-state measurement operations.

SYSTEMS, APPARATUSES, AND METHODS FOR ADJUSTABLE REFERENCE CONTROL

Resumen de: WO2026221814A1

Systems, methods, and apparatus for adjustable reference control are provided. An example includes: a controlled device generating a controlled output based at least on a control signal; an instrument device receiving the controlled output and generating an instrument output; a measurement device measuring the controlled output at a measurement rate and a first accuracy and generating a measurement output signal. There is also that: generates an error signal at an error signal update rate and a second accuracy; generates a setpoint signal based at least on the measurement output signal; and generate the control signal to control the controlled device based at least on the at least a portion of the error signal that is monotonic and the setpoint signal. The error signal update rate is faster than the measurement rate and the first accuracy is more accurate than the second accuracy.

TWO-BIT BIT FLIPPING DECODER DIVERSITY FOR QUANTUM LDPC CODES

Resumen de: US20260330285A1

0000 A method for efficient decoding of a quantum data stream. The method includes establishing a decoding threshold and identifying unique harmful substructures in the quantum data stream, each unique harmful substructure having a plurality of variable nodes, each node corresponding to a bit. The method further includes simultaneously executing a two-bit-flipping decoding pattern for each unique harmful substructure of the plurality of unique harmful substructures. The decoding pattern may be configured to increase a number of satisfied checks in the quantum data stream. The method may repeat the previous step until the decoding threshold is met or for a fixed number of iterations.

SYSTEMS AND METHODS FOR TROTTER-BASED UNIVERSAL FAULT TOLERANCE

Resumen de: WO2026222032A1

The present disclosure provides a framework that enables the execution of nontrivial logical circuit blocks at once, preserving their global structure. This whole-block approach allows for the direct implementation of logical Trotter circuits—of arbitrary rotation angles—on any stabilizer code, providing a powerful new method for fault-tolerant Hamiltonian simulation within a single code block. At the heart of our approach lies a deep structural correspondence between symplectic transvections and Trotter circuits. This connection enables both logical and physical circuits to share the Trotter structure while preserving stabilizer centralization and circuit symmetry even in the presence of non-Clifford rotations.

Parallel Matching for Quantum Error Correction

Resumen de: US20260330286A1

0000 The disclosure is directed to a method performed during an execution of a quantum algorithm, via a quantum computing system (QCS) that includes a set of qubits and a set of classical processor devices. The quantum algorithm includes a quantum error correction (QEC) code that includes a set of qubit measurements over the set of qubits. Prior to the execution of the QA, the classical processor devices generate a matching graph (MG). During the execution of the quantum algorithm, the following operations are interleaved. A current subset of qubit measurements is performed. The qubit measurements are based on the QEC code. The classical processor devices update the MG based on values of the current subset of qubit measurements. The set of classical processor devices decodes one or more qubit errors based on the updated MG.

Adaptive Hybrid Filtering and Quantum-Inspired Search Framework with Virtual Spectral Decomposition for Medical Image Analysis and Clinical Trial Optimization

Nº publicación: US20260331263A1 22/10/2026

Solicitante:

CHANDRA SHUBHAM [US]
Chandra Shubham

Resumen de: US20260331263A1

0000 An adaptive biological analysis system integrating Virtual Spectral Decomposition with dendritic binary gating for medical image analysis and therapeutic combination design. The system decomposes standard RGB camera images into virtual spectral channels using parametric sigmoid transfer functions, then applies dendritic morphological gating to extract twelve physically interpretable biomarker features including vessel density, coherence, oxygen saturation proxy, cup-to-disc ratio, peripapillary vessel density, and lens opacity index. An adaptive triage layer classifies normal samples without deep learning inference, reducing computational cost by twenty to sixty percent. A Kill Zone Framework encodes biological defense pathways as ternary signatures, computes weighted Hamming distances to drug masks, and identifies minimum therapeutic combinations achieving distance zero across all active defenses, validated in pancreatic cancer with companion drug identification for failed clinical trial rescue.